mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving, at a computer system, a request for volunteer assistance that identifies a location of a potential medical incident; identifying, by the computer system, one or more medical devices to be queried; after receiving the request for volunteer assistance, sending from the computing system, an electronic status query to each of the one or more of the devices to be queried; receiving, at the computing system, at least one status query response, wherein each status query response is received from an associated responding one of the queried devices and indicates a current status and current location of the associated responding device; and after receiving the at least one status query response, sending, from the computing system, an electronic nearby incident message to at least one selected responding device, each nearby incident message being arranged to cause an associated one of the responding devices to generate a nearby incident alert in response to the reception of the nearby incident message to indicate that there is the potential medical incident occurring nearby for which the associated responding device may be useful. receiving, at a computer system, a request for volunteer assistance that identifies a location of a potential medical incident; identifying, by the computer system, one or more medical devices to be queried; after receiving the request for volunteer assistance, sending from the computing system, an electronic status query to each of the one or more of the devices to be queried; receiving, at the computing system, at least one status query response, wherein each status query response is received from an associated responding one of the queried devices and indicates a current status and current location of the associated responding device; and after receiving the at least one status query response, sending, from the computing system, an electronic nearby incident message to at least one selected responding device, each nearby incident message being arranged to cause an associated one of the responding devices to generate a nearby incident alert in response to the reception of the nearby incident message to indicate that there is the potential medical incident occurring nearby for which the associated responding device may be useful.
A minitablet comprising about 9% to about 10% 2-methyl-1-[(4-[6-(trifluoromethyl)pyridin-2-yl]-6-{[2-(trifluoromethyl)pyridin-4-yl]amino}-1,3,5-triazin-2-yl)amino]propan-2-ol methanesulfonate or a solid form thereof (Compound 1A), about 42% to about 45% microcrystalline cellulose, about 26.5% to about 28.5% mannitol, about 1% to about 3% hydroxypropyl cellulose, about 6% to about 10% sodium starch glycolate, about 0.5% to about 1.5% sodium lauryl sulfate, about 1% to about 3% colloidal silicon dioxide, about 0.5% to about 2% hypromellose acetate succinate, about 3.5% to 5% sucralose, and about 1% to about 3% magnesium stearate, where the percentages are by weight based on total weight of the minitablet.
A medical collapsible quiver comprising at least two elongate tubular members , comprising a first elongate tubular member and a second elongate tubular member ; the first member having a first member inner surface and a free end portion with a first open end ; the second member having a second member inner surface and a second member outer surface; at least a part of the second member received within the first member for reciprocal motion in the elongate direction relative to the first member from a retracted position to an extended position in which at least a first end portion of the second member extends out of the first open end; the second member having a second end portion at a second end thereof with a first inner surface portion and an outer surface portion and, in the extended position, the outer surface portion engages the first member inner surface , characterised in that the first inner surface portion and the outer surface portion converge toward the second end so that, in the extended position, at the junction of the second end with the first member there is substantially no discontinuity between the first member inner surface and the first inner surface portion .
A nanocarrier for transdermal penetration comprising a chitosan-pluronic complex in which chitosan is substituted at both ends of a pluronic polymer, and a pluronic polymer, wherein the pluronic polymer is represented by the following chemical formula 1: [Chemical Formula 1] (PEO) a -(PPO) b -(PEO) a wherein the PEO is polyethylene oxide, the PPO is polypropylene oxide, and the a and b are each independently an integer of 1 to 300, wherein a molecular weight of the chitosan is 3 kDa, wherein a weight ratio of chitosan-pluronic complex and the pluronic polymer is 8:2. wherein the PEO is polyethylene oxide, the PPO is polypropylene oxide, and the a and b are each independently an integer of 1 to 300, wherein a molecular weight of the chitosan is 3 kDa, wherein a weight ratio of chitosan-pluronic complex and the pluronic polymer is 8:2.
A method comprising: selecting a device , communicatively coupled to a network, based on a classification of the device as a smart device, wherein the device comprises a piece of software; determining, with a processing device , a software version associated with the software of the device based on a traffic signature; determining whether there is a newer software version associated with the software of the device ; in response to determining the newer software version associated with the software of the device , storing an indicator of the newer software version associated with the software of the device ; and performing automatically an update of the software associated with the device using software having the newer software version associated with the device . selecting a device , communicatively coupled to a network, based on a classification of the device as a smart device, wherein the device comprises a piece of software; determining, with a processing device , a software version associated with the software of the device based on a traffic signature; determining whether there is a newer software version associated with the software of the device ; in response to determining the newer software version associated with the software of the device , storing an indicator of the newer software version associated with the software of the device ; and performing automatically an update of the software associated with the device using software having the newer software version associated with the device .
Sports garment for team sports, especially for soccer, football, rugby, handball or basketball, comprising an upper part which covers at least a part of the torso of the wearer and pants which covers at least a part of the abdomen of the wearer, wherein the upper part and the pants are forming a one-piece part, wherein the upper part and the pants are made as a unitary knitted design, wherein the garment is made as a seamless textile article without seams around the whole circumference of the garment along at least 40 % (h) of the total vertical extension (H) of the garment , wherein the seamless section of the garment extends at least along a part of the vertical extension of the upper part and extends at least along a part of the vertical extension of the pants , characterized in that the garment comprises at least one first region (F) in which the knitted material has a defined first stretch resistance and that the garment comprises at least one second region (S) in which the knitted material has a defined second stretch resistance, which is different from the first stretch resistance, wherein the first region (F) is a section of the garment covering the diaphragm of the wearer, wherein the second region (S) is a section of the garment covering the upper back of the wearer and/or the back side of the transition zone between the upper part and the pants .
A service discovery method, comprising: performing (S301), by a service request end, service discovery separately based on different networks, for a same service; correspondingly receiving (S302), by using each network based on which the same service can be discovered in the different networks, identifier information provided by a service providing end providing the same service, wherein the identifier information is used to identify the service providing end; when identifier information obtained by using at least two networks matches, determining (S303), by the service request end, that services discovered after service discovery is performed based on the at least two networks are the same service provided by the same service providing end; and when accessing the same service at a time, performing (S304) service data transmission by using the at least two networks. performing (S301), by a service request end, service discovery separately based on different networks, for a same service; correspondingly receiving (S302), by using each network based on which the same service can be discovered in the different networks, identifier information provided by a service providing end providing the same service, wherein the identifier information is used to identify the service providing end; when identifier information obtained by using at least two networks matches, determining (S303), by the service request end, that services discovered after service discovery is performed based on the at least two networks are the same service provided by the same service providing end; and when accessing the same service at a time, performing (S304) service data transmission by using the at least two networks.
A wireless signal device for broadcasting a wireless signal, wherein the wireless signal device is mounted in a landing zone and receives one or more elevator service request commands from a personal mobile terminal , and the wireless signal device is capable of communicating with an elevator controller of an elevator system and sending the received elevator service request command(s) to the elevator controller for controlling an elevator dispatching service, characterized in that the wireless signal device further comprises a service control unit configured to, in an elevator dispatching service process arranged in response to a first elevator service request command received previously, disable the elevator controller from responding to a second elevator service request command received later for controlling the elevator dispatching service in the elevator dispatching service process if the second elevator service request command has the same elevator call direction as the first elevator service request command , wherein the elevator dispatching service process is from the moment when the response to the first elevator service request command begins till the moment when an elevator car dispatched to stop leaves from the landing zone . characterized in that the wireless signal device further comprises a service control unit configured to, in an elevator dispatching service process arranged in response to a first elevator service request command received previously, disable the elevator controller from responding to a second elevator service request command received later for controlling the elevator dispatching service in the elevator dispatching service process if the second elevator service request command has the same elevator call direction as the first elevator service request command , wherein the elevator dispatching service process is from the moment when the response to the first elevator service request command begins till the moment when an elevator car dispatched to stop leaves from the landing zone .
A coating composition comprising; (a) a first polyester material having a number-average molecular weight (Mn) of 500 to 5,500 Daltons, and a glass transition temperature (Tg) of from 40 to 120 °C, and (b) a second polyester material having a number-average molecular weight (Mn) of 6,000 to 100,000 Daltons, wherein the number-average molecular weight (Mn) is determined according to ASTM D6579-11 and the glass transition temperature (Tg) is measured according to ASTM D6604-00 (Heat-flux differential scanning calorimetry (DSC), sample pans: aluminium, reference: blank, calibration: indium and mercury, sample weight:10g, heating rate: 20°C/min). (a) a first polyester material having a number-average molecular weight (Mn) of 500 to 5,500 Daltons, and a glass transition temperature (Tg) of from 40 to 120 °C, and (b) a second polyester material having a number-average molecular weight (Mn) of 6,000 to 100,000 Daltons,
An optical scanning device comprising: a light source unit configured to emit a light beam; a light deflecting unit configured to two-dimensionally deflect the light beam in a main scanning direction and a sub-scanning direction orthogonal to the main scanning direction; an image formation unit configured to form an image by two-dimensional scanning of the light beam performed by the light deflecting unit , wherein the image light generated at the image formation unit is emitted outside the optical scanning device; and a flat plate configured to transmit light incident on the light deflecting unit and deflected reflection light from the light deflecting unit , arranged in an optical path of the light beam between the light deflecting unit and the image formation unit , and characterized in that in a cross section in the sub-scanning direction, the flat plate is inclined in a direction in which an angle increases, the angle being formed by a virtual line, which forms a smaller angle with a perpendicular line of the flat plate , of two virtual lines each of which diagonally connects an end of the flat plate and an end of the image formation unit , and the perpendicular line of the flat plate , such that, if light having entered the image formation unit is scattered by the image formation unit and reflected by the flat plate , the reflected light does not re-enter the image formation unit . a light source unit configured to emit a light beam; a light deflecting unit configured to two-dimensionally deflect the light beam in a main scanning direction and a sub-scanning direction orthogonal to the main scanning direction; an image formation unit configured to form an image by two-dimensional scanning of the light beam performed by the light deflecting unit , wherein the image light generated at the image formation unit is emitted outside the optical scanning device; and a flat plate configured to transmit light incident on the light deflecting unit and deflected reflection light from the light deflecting unit , arranged in an optical path of the light beam between the light deflecting unit and the image formation unit , and characterized in that in a cross section in the sub-scanning direction, the flat plate is inclined in a direction in which an angle increases, the angle being formed by a virtual line, which forms a smaller angle with a perpendicular line of the flat plate , of two virtual lines each of which diagonally connects an end of the flat plate and an end of the image formation unit , and the perpendicular line of the flat plate , such that, if light having entered the image formation unit is scattered by the image formation unit and reflected by the flat plate , the reflected light does not re-enter the image formation unit .
A method for a user equipment operating in a wireless communication system, the method comprising: configuring (S1201) a plurality of sidelink logical channels, wherein each of the plurality of sidelink logical channels has an associated priority and belongs to a Logical Channel Group, briefly LCG, and one or more of LCGs are defined per ProSe Destination; generating (S1203) a Sidelink Buffer Status Reporting Medium Access Control Control Element, briefly SL BSR MAC CE, including buffer sizes of LCGs, transmitting (S1205) a MAC Protocol Data Unit including the SL BSR MAC CE, the method characterized in that : wherein, when a received uplink grant is not enough to include the SL BSR MAC CE containing a buffer status of all LCG having data available for transmission plus its subheader, the SL BSR MAC CE contains a buffer status for as many LCGs having data available for transmission as possible in decreasing order of a LCG priority, wherein the LCG priority of a LCG is determined as a highest priority of a logical channel among priorities of logical channels belonging to the LCG. configuring (S1201) a plurality of sidelink logical channels, wherein each of the plurality of sidelink logical channels has an associated priority and belongs to a Logical Channel Group, briefly LCG, and one or more of LCGs are defined per ProSe Destination; generating (S1203) a Sidelink Buffer Status Reporting Medium Access Control Control Element, briefly SL BSR MAC CE, including buffer sizes of LCGs, transmitting (S1205) a MAC Protocol Data Unit including the SL BSR MAC CE, the method characterized in that : wherein, when a received uplink grant is not enough to include the SL BSR MAC CE containing a buffer status of all LCG having data available for transmission plus its subheader, the SL BSR MAC CE contains a buffer status for as many LCGs having data available for transmission as possible in decreasing order of a LCG priority, wherein the LCG priority of a LCG is determined as a highest priority of a logical channel among priorities of logical channels belonging to the LCG. wherein, when a received uplink grant is not enough to include the SL BSR MAC CE containing a buffer status of all LCG having data available for transmission plus its subheader, the SL BSR MAC CE contains a buffer status for as many LCGs having data available for transmission as possible in decreasing order of a LCG priority, wherein the LCG priority of a LCG is determined as a highest priority of a logical channel among priorities of logical channels belonging to the LCG.
A passive, current dependent inductivity comprising a magnetic core , windings wound on a leg of the magnetic core , at least one air gap , wherein a saturation region made of magnetic material is arranged between the air gap and the windings such that a magnetic flux path bifurcates into a first path passing through the saturation region and into a second path passing through the air gap and bypassing the saturation region , whereby the magnetic resistance of the first path is lower than the magnetic resistance of the second path for winding currents below a first saturation current and whereby the magnetic resistance of the second path is lower than the magnetic resistance of the first path for winding currents above the first saturation current due to saturation effects occurring in the saturation region . a magnetic core , windings wound on a leg of the magnetic core , at least one air gap , wherein a saturation region made of magnetic material is arranged between the air gap and the windings such that a magnetic flux path bifurcates into a first path passing through the saturation region and into a second path passing through the air gap and bypassing the saturation region , whereby the magnetic resistance of the first path is lower than the magnetic resistance of the second path for winding currents below a first saturation current and whereby the magnetic resistance of the second path is lower than the magnetic resistance of the first path for winding currents above the first saturation current due to saturation effects occurring in the saturation region .
Pore pressure monitoring device, for use in geotechnical engineering, adapted to be deployed underground for monitoring pore-water pressure in the surrounding ground, comprising: a pressure sensor cavity , a housing surrounding the sensor cavity , a pressure sensor means , for sensing a fluid pressure of a fluid in the sensor cavity , wherein the cavity is in fluid communication with the surrounding ground, so as to allow equalisation of outside and inside pressure and ensure that no granular/solid pressure is exerted to the pressure sensor means , characterized in that the pore pressure monitoring device further comprises a degassing means , comprising: a gas discharge means and a gas-water filter means , wherein the a gas-water filter means is adapted for providing a route for gas to escape from the fluid in the sensor cavity towards the gas discharge means for discharging filtered gas to the atmosphere . a pressure sensor cavity , a housing surrounding the sensor cavity , a pressure sensor means , for sensing a fluid pressure of a fluid in the sensor cavity , wherein the cavity is in fluid communication with the surrounding ground, so as to allow equalisation of outside and inside pressure and ensure that no granular/solid pressure is exerted to the pressure sensor means , characterized in that the pore pressure monitoring device further comprises a degassing means , comprising: a gas discharge means and a gas-water filter means , wherein the a gas-water filter means is adapted for providing a route for gas to escape from the fluid in the sensor cavity towards the gas discharge means for discharging filtered gas to the atmosphere .
A method of transmitting power via electromagnetic coupling from a transmission device to a set of reception devices, wherein each reception device defines a first given power level specifying the power requirement required by each reception device, said method comprising the steps of: - Calculating by the transmission device, a first sum of the first given power levels defined by each of said set of reception devices; wherein, if a maximum power that can be transmitted by the transmission device to said set of reception devices is less than said first sum, - Identifying , among said set of reception devices, whether there is any reception device defining a second given power level which is lower than its first given power level; - if there is at least one reception device that defines the second given power level, performing said calculating step using the second given power level instead of using the first given power level defined by said at least one reception device; and otherwise - Determining , by said transmission device, according to the result of the calculating step and according to a set of criteria, among said set of reception devices a subset of reception devices to which the transmission device transmits power. - Calculating by the transmission device, a first sum of the first given power levels defined by each of said set of reception devices; wherein, if a maximum power that can be transmitted by the transmission device to said set of reception devices is less than said first sum, - Identifying , among said set of reception devices, whether there is any reception device defining a second given power level which is lower than its first given power level; - if there is at least one reception device that defines the second given power level, performing said calculating step using the second given power level instead of using the first given power level defined by said at least one reception device; and otherwise - Determining , by said transmission device, according to the result of the calculating step and according to a set of criteria, among said set of reception devices a subset of reception devices to which the transmission device transmits power.