mhurhangee/patent-ind-claim-en huggingface dataset:
An internal combustion engine comprising: a front cover which is disposed so as to cover end surfaces on one end sides of a cylinder block and a cylinder head in a crankshaft axial direction (X), wherein a mounting part provided for attaching the internal combustion engine to a vehicle body is formed integrally with the front cover , wherein the mounting part protrudes to a forward side of the internal combustion engine , characterized in that : the mounting part is made of a resin material, and the front cover is made of resin and includes, at an outer peripheral edge of the mounting part , a plurality of boss portions , and by a plurality of the boss portions , the outer peripheral edge of the mounting part is fixed to the cylinder head and the cylinder block . a front cover which is disposed so as to cover end surfaces on one end sides of a cylinder block and a cylinder head in a crankshaft axial direction (X), wherein a mounting part provided for attaching the internal combustion engine to a vehicle body is formed integrally with the front cover , wherein the mounting part protrudes to a forward side of the internal combustion engine , characterized in that : the mounting part is made of a resin material, and the front cover is made of resin and includes, at an outer peripheral edge of the mounting part , a plurality of boss portions , and by a plurality of the boss portions , the outer peripheral edge of the mounting part is fixed to the cylinder head and the cylinder block . the mounting part is made of a resin material, and the front cover is made of resin and includes, at an outer peripheral edge of the mounting part , a plurality of boss portions , and by a plurality of the boss portions , the outer peripheral edge of the mounting part is fixed to the cylinder head and the cylinder block .
A wireless communication method performed by a terminal device , the method comprising: selecting, based on a first parameter, a value set from a first value set and a second value set that are of slot offsets and that are configured by a network device, wherein all slot offsets in the first value set are greater than a first threshold, and at least one slot offset in the second value set is equal to the first threshold; and receiving downlink control information, DCI, sent by the network device, wherein a slot offset carried in the DCI belongs to the selected value set , and the slot offset is used to indicate an offset in a quantity of slots of a physical downlink shared channel, PDSCH, scheduled by the DCI relative to the DCI, wherein the first parameter is the quantity of receive antennas currently used by the terminal device, and the selecting, based on a first parameter, a value set from a first value set and a second value set that are of slot offsets and that are configured by a network device comprises: selecting the first value set when the quantity of receive antennas currently used by the terminal device is a first quantity of antennas; and selecting the second value set when the quantity of receive antennas currently used by the terminal device is a second quantity of antennas, wherein the first quantity of antennas is less than the second quantity of antennas. selecting, based on a first parameter, a value set from a first value set and a second value set that are of slot offsets and that are configured by a network device, wherein all slot offsets in the first value set are greater than a first threshold, and at least one slot offset in the second value set is equal to the first threshold; and receiving downlink control information, DCI, sent by the network device, wherein a slot offset carried in the DCI belongs to the selected value set , and the slot offset is used to indicate an offset in a quantity of slots of a physical downlink shared channel, PDSCH, scheduled by the DCI relative to the DCI, wherein the first parameter is the quantity of receive antennas currently used by the terminal device, and the selecting, based on a first parameter, a value set from a first value set and a second value set that are of slot offsets and that are configured by a network device comprises: selecting the first value set when the quantity of receive antennas currently used by the terminal device is a first quantity of antennas; and selecting the second value set when the quantity of receive antennas currently used by the terminal device is a second quantity of antennas, wherein the first quantity of antennas is less than the second quantity of antennas. selecting the first value set when the quantity of receive antennas currently used by the terminal device is a first quantity of antennas; and selecting the second value set when the quantity of receive antennas currently used by the terminal device is a second quantity of antennas, wherein the first quantity of antennas is less than the second quantity of antennas.
A particulate metering system , the system comprising: a plurality of particulate accelerators , each comprising: an air input receiving an air flow from an air production system ; a plurality of air-particulate interfaces , each of the air-particulate interfaces receiving particulate from a different one of a plurality of particulate containers via separate operated conveyances ; a particulate-air mixing area comprising a confluence of the air flow from the air input and the particulate from the plurality of air-particulate interfaces; and an air-particulate output associated with a separate discharge of a plurality of discharges; wherein each operated conveyance is associated with one of the particulate containers and has a separate discharge at one air-particulate interface of one particulate accelerator; wherein one or more metering controls are in operative communication with the plurality of operated conveyances for controlling the amount of one or more types of particulate metered across the plurality of air-particulate interfaces. a plurality of particulate accelerators , each comprising: an air input receiving an air flow from an air production system ; a plurality of air-particulate interfaces , each of the air-particulate interfaces receiving particulate from a different one of a plurality of particulate containers via separate operated conveyances ; a particulate-air mixing area comprising a confluence of the air flow from the air input and the particulate from the plurality of air-particulate interfaces; and an air-particulate output associated with a separate discharge of a plurality of discharges; an air input receiving an air flow from an air production system ; a plurality of air-particulate interfaces , each of the air-particulate interfaces receiving particulate from a different one of a plurality of particulate containers via separate operated conveyances ; a particulate-air mixing area comprising a confluence of the air flow from the air input and the particulate from the plurality of air-particulate interfaces; and an air-particulate output associated with a separate discharge of a plurality of discharges; wherein each operated conveyance is associated with one of the particulate containers and has a separate discharge at one air-particulate interface of one particulate accelerator; wherein one or more metering controls are in operative communication with the plurality of operated conveyances for controlling the amount of one or more types of particulate metered across the plurality of air-particulate interfaces.
Method for operating a sensor element for detecting particles of a measurement gas in a measurement gas chamber, wherein the sensor element comprises a carrier and at least one measuring electrode which is connected to a carrier and can be subjected to the measurement gas, wherein the method comprises the following steps: a) carrying out a first regeneration of the sensor element at a first regeneration temperature ; subsequently: b) carrying out a first diagnostic measurement at the measuring electrode ; an d subsequently: c) carrying out at least one of the following steps as a function of a result of the first diagnostic measurement: c1) outputting a fault message ; c2) carrying out a measurement phase for detecting the particles of the measurement gas ; or c3) carrying out a second regeneration of the sensor element at a second regeneration temperature , wherein the second regeneration temperature is higher than the first regeneration temperature, characterized in that in method step c) a result of the first diagnostic measurement is compared with a first threshold value ; wherein method step c1) is carried out if the result is above the first threshold value, wherein, if the result is below the first threshold value, the result is compared with the second threshold value which is lower than the first threshold value , wherein, if the result is below the second threshold value, method step c2) is carried out, wherein, if the result lies between the first threshold value and the second threshold value, method step c3) is carried out. a) carrying out a first regeneration of the sensor element at a first regeneration temperature ; subsequently: b) carrying out a first diagnostic measurement at the measuring electrode ; an d subsequently: c) carrying out at least one of the following steps as a function of a result of the first diagnostic measurement: c1) outputting a fault message ; c2) carrying out a measurement phase for detecting the particles of the measurement gas ; or c3) carrying out a second regeneration of the sensor element at a second regeneration temperature , wherein the second regeneration temperature is higher than the first regeneration temperature, characterized in that in method step c) a result of the first diagnostic measurement is compared with a first threshold value ; wherein method step c1) is carried out if the result is above the first threshold value, wherein, if the result is below the first threshold value, the result is compared with the second threshold value which is lower than the first threshold value , wherein, if the result is below the second threshold value, method step c2) is carried out, wherein, if the result lies between the first threshold value and the second threshold value, method step c3) is carried out. c1) outputting a fault message ; c2) carrying out a measurement phase for detecting the particles of the measurement gas ; or c3) carrying out a second regeneration of the sensor element at a second regeneration temperature ,
A robot cleaner comprising: a cleaner body including a wheel unit and a controller configured to control driving of the wheel unit ; a dust container detachably coupled to a dust container accommodation part of the cleaner body ; and a dust container cover rotatably coupled to the cleaner body , the dust container cover being detachably coupled to the dust container to cover the dust container , characterized in that the dust container cover includes: a top cover formed of a light transmissive material; a bottom cover coupled to the top cover to form an appearance of the dust container cover together with the top cover ; and infrared receiving units spaced apart from each other at a certain distance in an internal space defined by the top cover and the bottom cover configured to receive an infrared signal. a cleaner body including a wheel unit and a controller configured to control driving of the wheel unit ; a dust container detachably coupled to a dust container accommodation part of the cleaner body ; and a dust container cover rotatably coupled to the cleaner body , the dust container cover being detachably coupled to the dust container to cover the dust container , characterized in that the dust container cover includes: a top cover formed of a light transmissive material; a bottom cover coupled to the top cover to form an appearance of the dust container cover together with the top cover ; and infrared receiving units spaced apart from each other at a certain distance in an internal space defined by the top cover and the bottom cover configured to receive an infrared signal. a top cover formed of a light transmissive material; a bottom cover coupled to the top cover to form an appearance of the dust container cover together with the top cover ; and infrared receiving units spaced apart from each other at a certain distance in an internal space defined by the top cover and the bottom cover configured to receive an infrared signal.
A method of wireless communication performed by a user equipment, UE, comprising: receiving, from another UE, a particular transmission on a particular transmission resource; and transmitting, on a feedback resource selected based at least in part on the particular transmission resource, a feedback message using a multiple access signature determined based at least in part on a characteristic of the particular transmission. receiving, from another UE, a particular transmission on a particular transmission resource; and transmitting, on a feedback resource selected based at least in part on the particular transmission resource, a feedback message using a multiple access signature determined based at least in part on a characteristic of the particular transmission.
An injection device configured for attachment to the skin of a patient using an adhesive layer, the injection device comprises a release liner covering the adhesive layer thereby preventing skin attachment, the release liner comprises: - a sheet of material with a first surface contacting the adhesive layer , - a film that is connected to a first sterile barrier film located within the injection device , - an aperture defining a passage for the a film, - wherein an end of the film is connected to a second surface of the sheet of material that is opposite to the first surface, characterized in that the release liner is covered by a strengthening sheet adhesively connected to the second surface and covering the aperture and the end of the film . - a sheet of material with a first surface contacting the adhesive layer , - a film that is connected to a first sterile barrier film located within the injection device , - an aperture defining a passage for the a film, - wherein an end of the film is connected to a second surface of the sheet of material that is opposite to the first surface,
An air conditioner outdoor unit, comprising: a housing , being provided with a first air exchange port and a second air exchange port ; and a draught fan , being arranged in the housing and located between the first air exchange port and the second air exchange port , wherein the draught fan comprises an electric motor , a first fan and a second fan , and wherein the first fan and the second fan rotate independently of each other, characterized in that the electric motor comprises two rotors which rotate independently of each other; and a first output shaft and a second output shaft connected to the two rotors respectively, and the first output shaft and the second output shaft protrude, respectively, towards the same side of an axial direction of the electric motor along the axial direction of the electric motor , and the first output shaft and the second output shaft are respectively fixedly connected to the first fan and the second fan on the same side of the electric motor , and are used for driving the first fan and the second fan to rotate independently of each other. a housing , being provided with a first air exchange port and a second air exchange port ; and a draught fan , being arranged in the housing and located between the first air exchange port and the second air exchange port , wherein the draught fan comprises an electric motor , a first fan and a second fan , and wherein the first fan and the second fan rotate independently of each other, characterized in that the electric motor comprises two rotors which rotate independently of each other; and a first output shaft and a second output shaft connected to the two rotors respectively, and the first output shaft and the second output shaft protrude, respectively, towards the same side of an axial direction of the electric motor along the axial direction of the electric motor , and the first output shaft and the second output shaft are respectively fixedly connected to the first fan and the second fan on the same side of the electric motor , and are used for driving the first fan and the second fan to rotate independently of each other.
An apparatus for at least one of perfusion and transport of an organ or tissue, the apparatus comprising: an organ container for storing the organ or tissue, the organ container being configured to be inserted into the apparatus and comprising: a basin configured to hold the organ or tissue and a perfusate bath; and tubing that (i) is connectable to a source of oxygen, (ii) includes a plurality of holes by which the oxygen may exit the tubing , and (iii) is located within the basin so as to be submerged within the perfusate bath present during the perfusion or transport of the organ or tissue; and an oxygen line configured to convey oxygen from a source of oxygen to the tubing , a first end of the oxygen line being within the basin of the organ container and a second end of the oxygen line being outside the basin , the apparatus further comprising: a first external lid configured to cover the basin when closed; and a second external lid , adjacent the first external lid , and configured to cover other components of the apparatus when closed, wherein the oxygen line is able to convey oxygen from the oxygen source to the tubing when the first external lid is closed, and wherein the second end of the oxygen line is exposed even when the first external lid is closed. an organ container for storing the organ or tissue, the organ container being configured to be inserted into the apparatus and comprising: a basin configured to hold the organ or tissue and a perfusate bath; and tubing that (i) is connectable to a source of oxygen, (ii) includes a plurality of holes by which the oxygen may exit the tubing , and (iii) is located within the basin so as to be submerged within the perfusate bath present during the perfusion or transport of the organ or tissue; and a basin configured to hold the organ or tissue and a perfusate bath; and tubing that (i) is connectable to a source of oxygen, (ii) includes a plurality of holes by which the oxygen may exit the tubing , and (iii) is located within the basin so as to be submerged within the perfusate bath present during the perfusion or transport of the organ or tissue; and an oxygen line configured to convey oxygen from a source of oxygen to the tubing , a first end of the oxygen line being within the basin of the organ container and a second end of the oxygen line being outside the basin , the apparatus further comprising: a first external lid configured to cover the basin when closed; and a second external lid , adjacent the first external lid , and configured to cover other components of the apparatus when closed, wherein the oxygen line is able to convey oxygen from the oxygen source to the tubing when the first external lid is closed, and wherein the second end of the oxygen line is exposed even when the first external lid is closed. a first external lid configured to cover the basin when closed; and a second external lid , adjacent the first external lid , and configured to cover other components of the apparatus when closed,
A gas sensor module including a PCB carrier and comprising: - at least one radiation source configured for emitting radiation: - at least one radiation detector unit (4;41,42) configured to detect at least part of said radiation and comprising a sensor chip with a thermal infrared sensor ; - a radiation cell providing at least one radiation path (X) from said radiation source to said radiation detector unit , wherein said PCB carrier is provided with a recess and has a first side and an opposing second side , the recess forming a through-opening or a cut-out through the PCB carrier , and wherein said gas sensor module is configured such that at least part of said at least one radiation path (X) is propagating through or into said recess , said at least one radiation path (X) being propagating on the first side and/or the second side of the PCB carrier , characterized in that the thermal infrared sensor is suspended on a membrane spanning a through-opening or a cut-out through the substrate of the sensor chip , and in that the infrared-sensitive region of the sensor chip protrudes over an internal edge of the PCB carrier into said recess in such a way that radiation incident from the first side and the second side of the PCB carrier is measurable by the sensor chip . - at least one radiation source configured for emitting radiation: - at least one radiation detector unit (4;41,42) configured to detect at least part of said radiation and comprising a sensor chip with a thermal infrared sensor ; - a radiation cell providing at least one radiation path (X) from said radiation source to said radiation detector unit , wherein said PCB carrier is provided with a recess and has a first side and an opposing second side , the recess forming a through-opening or a cut-out through the PCB carrier , and
A method for determining passive intermodulation, PIM, characteristics at a network node , the method comprising: capturing (S100, S106, S116, S126) signals from each of a plurality of antenna ports at a first time period and a second time period, wherein between the first and second time periods, (i) a downlink, DL, covariance matrix is to change and (ii) a first and a second uplink, UL, covariance matrix are expected not to change with respect to one another for the components of UL transmit covariance that are due to wireless device, WD, UL traffic, WD interference and noise; determining (S102, S108, S118, S134, S144) the first UL covariance matrix based on signals captured at the first time period; determining (S102, S110, S120, S136, S146) the second UL covariance matrix based on signals captured at the second time period; and determining (S104, S112, S122, S138, S148) a difference matrix, the difference matrix being based on a difference between the first and second UL covariance matrices, the difference matrix corresponding to changes in PIM between the first time period and the second time period. capturing (S100, S106, S116, S126) signals from each of a plurality of antenna ports at a first time period and a second time period, wherein between the first and second time periods, (i) a downlink, DL, covariance matrix is to change and (ii) a first and a second uplink, UL, covariance matrix are expected not to change with respect to one another for the components of UL transmit covariance that are due to wireless device, WD, UL traffic, WD interference and noise; determining (S102, S108, S118, S134, S144) the first UL covariance matrix based on signals captured at the first time period; determining (S102, S110, S120, S136, S146) the second UL covariance matrix based on signals captured at the second time period; and determining (S104, S112, S122, S138, S148) a difference matrix, the difference matrix being based on a difference between the first and second UL covariance matrices, the difference matrix corresponding to changes in PIM between the first time period and the second time period.