def connection_procedure(testcase, central, peripheral):
btp.gap_set_conn(peripheral)
btp.gap_set_gendiscov(peripheral)
uuid = os.urandom(2)
btp.gap_adv_ind_on(peripheral, ad=[(AdType.uuid16_some, uuid)])
def verify_f(args):
return find_adv_by_uuid(args, btp.btp2uuid(len(uuid), uuid))
btp.gap_start_discov(central)
future = btp.gap_device_found_ev(central, verify_f)
wait_futures([future], timeout=EV_TIMEOUT)
btp.gap_stop_discov(central)
found = future.result()
testcase.assertIsNotNone(found)
peripheral.stack.gap.iut_addr_set(found.addr)
def verify_central(args):
return verify_address(args, found.addr)
future_central = btp.gap_connected_ev(central, verify_central)
future_peripheral = btp.gap_connected_ev(peripheral)
btp.gap_conn(central, peripheral.stack.gap.iut_addr_get())
wait_futures([future_central, future_peripheral], timeout=EV_TIMEOUT)
testcase.assertTrue(central.stack.gap.is_connected())
testcase.assertTrue(peripheral.stack.gap.is_connected())
central_addr, _ = future_peripheral.result()
central.stack.gap.iut_addr_set(central_addr)
def hdl_wid_115(desc):
stack = get_stack()
btp.gap_set_conn()
btp.gap_set_gendiscov()
btp.gap_adv_ind_on(ad=stack.gap.ad)
return True
def test_btp_GAP_DISC_GENM_1(self):
"""
Verify the IUT1 in General Discoverable Mode and the Undirected
Connectable Mode can be discovered by a device performing the General
Discovery Procedure.
The IUT1 is operating in the Peripheral role.
"""
btp.gap_set_conn(self.iut2)
btp.gap_set_gendiscov(self.iut2)
uuid = os.urandom(2)
btp.gap_adv_ind_on(self.iut2, ad=[(AdType.uuid16_some, uuid)])
def verify_f(args):
return find_adv_by_uuid(args, btp.btp2uuid(len(uuid), uuid))
btp.gap_start_discov(self.iut1)
future = btp.gap_device_found_ev(self.iut1, verify_f)
wait_futures([future], timeout=EV_TIMEOUT)
btp.gap_stop_discov(self.iut1)
found = future.result()
self.assertIsNotNone(found)
def hdl_wid_115(_: WIDParams):
stack = get_stack()
btp.gap_set_conn()
btp.gap_set_gendiscov()
btp.gap_adv_ind_on(ad=stack.gap.ad, sd=stack.gap.sd)
return True
def hdl_wid_9(desc):
stack = get_stack()
btp.gap_set_conn()
btp.gap_adv_ind_on(ad=stack.gap.ad, sd=stack.gap.sd)
return True
def hdl_wid_91(_: WIDParams):
stack = get_stack()
btp.gap_set_conn()
btp.gap_adv_ind_on(ad=stack.gap.ad)
return True
def hdl_wid_60(desc):
btp.gap_set_conn()
btp.gap_set_gendiscov()
bd_addr = btp.pts_addr_get()
bd_addr_type = btp.pts_addr_type_get()
btp.gap_direct_adv_on(bd_addr, bd_addr_type)
return True
def hdl_wid_50(desc):
stack = get_stack()
btp.gap_adv_off()
btp.gap_set_limdiscov()
btp.gap_set_conn()
btp.gap_adv_ind_on(ad=stack.gap.ad)
return True
def hdl_wid_15(_: WIDParams):
"""
Implements: TSC_MMI_tester_enable_connection
description: Action: Place the IUT in connectable mode.
"""
stack = btp.get_stack()
btp.gap_set_conn()
btp.gap_set_gendiscov()
btp.gap_adv_ind_on(ad=stack.gap.ad)
return True
def hdl_wid_15(desc):
"""
Implements: TSC_MMI_tester_enable_connection
:param desc: Action: Place the IUT in connectable mode.
:return:
"""
btp.gap_set_conn()
btp.gap_set_gendiscov()
btp.gap_adv_ind_on()
return True
def hdl_wid_56(desc):
"""
Implements: TSC_MMI_tester_enable_connection
:param desc: Action: Place the IUT in connectable mode.
:return:
"""
stack = btp.get_stack()
btp.gap_set_conn()
btp.gap_set_gendiscov()
btp.gap_adv_ind_on(ad=stack.gap.ad)
return True
def test_SMP_Server_SC_Passkey_Entry(self, iut, valid):
btp.gap_set_io_cap(iut, IOCap.keyboard_display)
btp.gap_set_conn(iut)
btp.gap_set_gendiscov(iut)
btp.gap_adv_ind_on(iut)
future = btp.gap_passkey_entry_req_ev(iut)
try:
wait_futures([future], timeout=EV_TIMEOUT)
btp.gap_passkey_entry_rsp(iut, self.config.tester_addr,
self.config.tester_passkey)
except (TimeoutError, BTPErrorInvalidStatus) as e:
if valid:
raise e
def test_SMP_Server_SC_Numeric_Comparison(self, iut, valid):
btp.gap_set_io_cap(iut, IOCap.keyboard_display)
btp.gap_set_conn(iut)
btp.gap_set_gendiscov(iut)
btp.gap_adv_ind_on(iut)
future = btp.gap_passkey_confirm_req_ev(iut)
try:
wait_futures([future], timeout=EV_TIMEOUT)
results = future.result()
pk_iut = results[1]
assert (pk_iut is not None)
btp.gap_passkey_confirm(iut, self.config.tester_addr, 1)
except (TimeoutError, BTPErrorInvalidStatus) as e:
if valid:
raise e
def hdl_wid_91(desc):
stack = get_stack()
ad = []
sd = []
btp.gap_set_conn()
if stack.gap.name:
ad.append((AdType.name_short, hexlify(stack.gap.name)))
if stack.gap.manufacturer_data:
sd.append((AdType.manufacturer_data, stack.gap.manufacturer_data))
btp.gap_adv_ind_on(ad=ad, sd=sd)
return True
def hdl_wid_90(desc):
stack = get_stack()
ad = []
sd = []
if stack.gap.name:
ad.append((AdType.name_short, hexlify(stack.gap.name)))
if stack.gap.manufacturer_data:
sd.append((AdType.manufacturer_data, stack.gap.manufacturer_data))
btp.gap_adv_off()
btp.gap_read_ctrl_info()
btp.gap_set_conn()
btp.gap_set_gendiscov()
btp.gap_adv_ind_on(ad=ad, sd=sd)
return True
def hdl_wid_20001(_: WIDParams):
stack = btp.get_stack()
btp.gap_set_conn()
btp.gap_set_gendiscov()
btp.gap_adv_ind_on(ad=stack.gap.ad)
return True
def test_SMP_Server_SC_Just_Works(self, iut, valid):
btp.gap_set_io_cap(iut, IOCap.keyboard_display)
btp.gap_set_conn(iut)
btp.gap_set_gendiscov(iut)
btp.gap_adv_ind_on(iut)
def hdl_wid_1(desc):
btp.gap_set_conn()
btp.gap_set_gendiscov()
btp.gap_adv_ind_on()
return True
def test_ATT_Server(self, iut, valid):
btp.gap_set_conn(iut)
btp.gap_set_gendiscov(iut)
btp.gap_adv_ind_on(iut)
def hdl_wid_20001(desc):
btp.gap_set_conn()
btp.gap_adv_ind_on()
return True
def test_ATT_Server(iut, valid):
test_case_setup(iut)
btp.gap_set_conn(iut)
btp.gap_set_gendiscov(iut)
btp.gap_adv_ind_on(iut)
