mhurhangee/ep-ind-claims huggingface dataset:
A method for performing an uplink transmission of a communication apparatus in a wireless communication system, a method comprising: generating a sounding reference signal, SRS, for the uplink transmission; and transmitting the SRS using a subframe #n, wherein the SRS may be transmitted on a symbol located last on a time axis in the subframe #n, wherein if the subframe #n and a subframe #(n + 1) are subframes for different links, respectively, the SRS is not transmitted in a last symbol of the subframe #n, wherein if the subframe #n and the subframe #(n + 1) are subframes for a same link, the SRS is not transmitted using the last symbol of the subframe #n when the subframe #n is a subframe configured as an RN-specific SRS subframe, wherein if the subframe #n and the subframe #(n + 1) are subframes for the same link, the SRS is transmitted in a last symbol of the subframe #n when the subframe #n is a subframe configured as a cell-specific SRS subframe, and wherein the control information includes information on whether the last symbol of the subframe #n is used for transmission of the SRS. generating a sounding reference signal, SRS, for the uplink transmission; and transmitting the SRS using a subframe #n, wherein the SRS may be transmitted on a symbol located last on a time axis in the subframe #n, wherein if the subframe #n and a subframe #(n + 1) are subframes for different links, respectively, the SRS is not transmitted in a last symbol of the subframe #n, wherein if the subframe #n and the subframe #(n + 1) are subframes for a same link, the SRS is not transmitted using the last symbol of the subframe #n when the subframe #n is a subframe configured as an RN-specific SRS subframe, wherein if the subframe #n and the subframe #(n + 1) are subframes for the same link, the SRS is transmitted in a last symbol of the subframe #n when the subframe #n is a subframe configured as a cell-specific SRS subframe, and wherein the control information includes information on whether the last symbol of the subframe #n is used for transmission of the SRS.
A pneumatic tire having a tread portion and a belt layer, wherein the belt layer uses a monofilament cord as a reinforcing cord, and the tire cross-sectional width Wt refers to the width of the tire, obtained by excluding the patterns, letters, etc. on the sidewalls of the tire from the straight-line distance between the sidewalls, including all patterns, letters, etc. on the sidewalls of the tire, characterized in that the number e of arranged monofilament cords per 5 cm in the tire width direction (cords/5 cm) in the cross section of the belt layer in the tire radial direction, and the tire cross-sectional width Wt (mm) when the tire is installed on a standardized rim and the internal pressure is set to 250 kPa satisfy the following (formula 1) and (formula 2). e / 0.31 Wt + 14.35 > 1.09 e / 0.31 Wt + 56.45 < 0.75 the belt layer uses a monofilament cord as a reinforcing cord, and the tire cross-sectional width Wt refers to the width of the tire, obtained by excluding the patterns, letters, etc. on the sidewalls of the tire from the straight-line distance between the sidewalls, including all patterns, letters, etc. on the sidewalls of the tire, characterized in that the number e of arranged monofilament cords per 5 cm in the tire width direction (cords/5 cm) in the cross section of the belt layer in the tire radial direction, and the tire cross-sectional width Wt (mm) when the tire is installed on a standardized rim and the internal pressure is set to 250 kPa satisfy the following (formula 1) and (formula 2). e / 0.31 Wt + 14.35 > 1.09 e / 0.31 Wt + 56.45 < 0.75
A coattrited composition comprising: (a) at least 70% by weight microcrystalline cellulose, wherein 80% to 100% of the microcrystalline cellulose has a particle size not greater than 1 micrometer and is colloidally stable when dispersed in aqueous media; (b) a hydrocolloid selected from a carrageenan, propylene glycol alginate or a combination of a carrageenan and another hydrocolloid; and (c) a water soluble inorganic salt; wh erein the microcrystalline cellulose and hydrocolloid are coattrited,the hydrocolloid is closely bound to the microcrystalline celllulose, and the coattrited composition has a mean particle size of less than 10 microns, and wherein (i) when the hydrocolloid is a carrageenan at least 50% of the particles have a particle size less than 3.5 microns, (ii) when the hydrocolloid is propylene glycol alginate at least 30% of the particles have a particle size less than 3.5 microns, (iii) when the hydrocolloid is a combination of a carrageenan and another hydrocolloid at least 20% of the particles have a particle size less than 3.5 microns, and wherein the particle size has been determined according to the method disclosed in the description. (a) at least 70% by weight microcrystalline cellulose, wherein 80% to 100% of the microcrystalline cellulose has a particle size not greater than 1 micrometer and is colloidally stable when dispersed in aqueous media; (b) a hydrocolloid selected from a carrageenan, propylene glycol alginate or a combination of a carrageenan and another hydrocolloid; and (c) a water soluble inorganic salt; wh erein the microcrystalline cellulose and hydrocolloid are coattrited,the hydrocolloid is closely bound to the microcrystalline celllulose, and the coattrited composition has a mean particle size of less than 10 microns, and wherein (i) when the hydrocolloid is a carrageenan at least 50% of the particles have a particle size less than 3.5 microns, (ii) when the hydrocolloid is propylene glycol alginate at least 30% of the particles have a particle size less than 3.5 microns, (iii) when the hydrocolloid is a combination of a carrageenan and another hydrocolloid at least 20% of the particles have a particle size less than 3.5 microns, and wherein the particle size has been determined according to the method disclosed in the description. (i) when the hydrocolloid is a carrageenan at least 50% of the particles have a particle size less than 3.5 microns, (ii) when the hydrocolloid is propylene glycol alginate at least 30% of the particles have a particle size less than 3.5 microns, (iii) when the hydrocolloid is a combination of a carrageenan and another hydrocolloid at least 20% of the particles have a particle size less than 3.5 microns, and wherein the particle size has been determined according to the method disclosed in the description.
A coated article including a coating supported by a glass substrate, the coating comprising: - a first infrared reflecting layer comprising ITO on the glass substrate; - a first dielectric layer comprising silicon nitride on the glass substrate over at least the first IR reflecting layer comprising ITO; - a second layer IR reflecting layer comprising a nitride of titanium on the glass substrate over at least the first dielectric layer comprising silicon nitride, so that the first dielectric layer comprising silicon nitride is located between at least the first IR reflecting layer comprising ITO and the second IR reflecting layer comprising the nitride of titanium; - a second dielectric layer comprising silicon nitride on the glass substrate over at least the second IR reflecting layer comprising the nitride of titanium; wherein the coating contains no IR reflecting layer based on silver; wherein the first IR reflecting layer comprising ITO is from a 250-450 Å thick; and wherein the coating has a normal emittance (E n) value of no greater than 0.30; and wherein the coated article measured monolithically has: a visible transmission from 15-80%, a film side visible reflectance no greater than 10%, a glass side visible reflectance no greater than 30%, a glass side reflective a* value of from - 100 to +1.6, and a light-to-solar gain ratio of at least 1.10. - a first infrared reflecting layer comprising ITO on the glass substrate; - a first dielectric layer comprising silicon nitride on the glass substrate over at least the first IR reflecting layer comprising ITO; - a second layer IR reflecting layer comprising a nitride of titanium on the glass substrate over at least the first dielectric layer comprising silicon nitride, so that the first dielectric layer comprising silicon nitride is located between at least the first IR reflecting layer comprising ITO and the second IR reflecting layer comprising the nitride of titanium; - a second dielectric layer comprising silicon nitride on the glass substrate over at least the second IR reflecting layer comprising the nitride of titanium; wherein the coating contains no IR reflecting layer based on silver; wherein the first IR reflecting layer comprising ITO is from a 250-450 Å thick; and wherein the coating has a normal emittance (E n) value of no greater than 0.30; and wherein the coated article measured monolithically has: a visible transmission from 15-80%, a film side visible reflectance no greater than 10%, a glass side visible reflectance no greater than 30%, a glass side reflective a* value of from - 100 to +1.6, and a light-to-solar gain ratio of at least 1.10.
A multi-functional fuel nozzle for a combustion turbine engine, comprising: a nozzle cap disposed at a downstream end of the nozzle; a heat shield mounted onto the nozzle cap; and a plurality of castellations circumferentially arranged on a forward surface of the nozzle cap, wherein mutually facing lateral surfaces of adjacent castellations define respective recesses on the forward surface of the nozzle cap, respective top areas of the recesses being closed by corresponding portions of a back side of the heat shield to define a plurality of cooling channels arranged to provide cooling to a forward face of the nozzle cap, wherein the heat shield includes an annular lip comprising a plurality of slots circumferentially disposed about a longitudinal axis of the nozzle, the slots positioned to feed cooling air to the cooling channels, wherein the nozzle cap comprises a centrally located bore arranged to accommodate a downstream portion of a liquid fuel lance of the nozzle, wherein the downstream portion of the liquid fuel lance comprises an atomizer assembly, wherein the plurality of cooling channels are arranged to convey cooling air towards the centrally located bore to discharge cooling air over a forward face of the atomizer assembly. a nozzle cap disposed at a downstream end of the nozzle; a heat shield mounted onto the nozzle cap; and a plurality of castellations circumferentially arranged on a forward surface of the nozzle cap, wherein mutually facing lateral surfaces of adjacent castellations define respective recesses on the forward surface of the nozzle cap, respective top areas of the recesses being closed by corresponding portions of a back side of the heat shield to define a plurality of cooling channels arranged to provide cooling to a forward face of the nozzle cap, wherein the heat shield includes an annular lip comprising a plurality of slots circumferentially disposed about a longitudinal axis of the nozzle, the slots positioned to feed cooling air to the cooling channels, wherein the nozzle cap comprises a centrally located bore arranged to accommodate a downstream portion of a liquid fuel lance of the nozzle, wherein the downstream portion of the liquid fuel lance comprises an atomizer assembly, wherein the plurality of cooling channels are arranged to convey cooling air towards the centrally located bore to discharge cooling air over a forward face of the atomizer assembly.
A blanket servicing system comprising: a blanket (202, 214) to receive a thermoplastic print agent from a photoconductor element; a rotatably mounted endless cleaning surface, to receive a layer of thermoplastic print agent from the blanket, wherein the endless cleaning surface is to engage with the blanket to transfer residue from the blanket to the layer of thermoplastic print agent on the endless cleaning surface; a scraper, to engage with the endless cleaning surface and transfer the residue from the endless cleaning surface to a collection element; a biasing device to bias the scraper against the endless cleaning surface; the blanket servicing system being characterized by: a variance recording engine to utilize a sensor to record a variance in thickness and/or density of the endless cleaning surface; a determination engine to determine a force with which the scraper is to be biased towards the endless cleaning surface in view of the observed variance; and an implementation engine to adjust the biasing device to exert the determined biasing force towards the endless cleaning surface. a blanket (202, 214) to receive a thermoplastic print agent from a photoconductor element; a rotatably mounted endless cleaning surface, to receive a layer of thermoplastic print agent from the blanket, wherein the endless cleaning surface is to engage with the blanket to transfer residue from the blanket to the layer of thermoplastic print agent on the endless cleaning surface; a scraper, to engage with the endless cleaning surface and transfer the residue from the endless cleaning surface to a collection element; a biasing device to bias the scraper against the endless cleaning surface; the blanket servicing system being characterized by: a variance recording engine to utilize a sensor to record a variance in thickness and/or density of the endless cleaning surface; a determination engine to determine a force with which the scraper is to be biased towards the endless cleaning surface in view of the observed variance; and an implementation engine to adjust the biasing device to exert the determined biasing force towards the endless cleaning surface. a variance recording engine to utilize a sensor to record a variance in thickness and/or density of the endless cleaning surface; a determination engine to determine a force with which the scraper is to be biased towards the endless cleaning surface in view of the observed variance; and an implementation engine to adjust the biasing device to exert the determined biasing force towards the endless cleaning surface.
An electronic device comprising: a communication circuit; a display; a processor; and a memory configured to be electrically connected to the processor, wherein the memory stores instructions which are configured to cause the processor to: acquire location information of an external device to which the electronic device transmits and receives signals through the communication circuit, wherein the location information comprises a distance and a direction of the external device with respect to the electronic device; control the display to display a user interface in a narrow and long region extended along at least one edge region (11, 12, 13, 14) formed in the display, wherein controlling the display to display the user interface comprises using a narrow and long region extended along an edge region adjacent to the external device to indicate the direction in a situation in which the distance between the electronic device and the external device exceeds a predetermined value and increases. a communication circuit; a display; a processor; and a memory configured to be electrically connected to the processor, wherein the memory stores instructions which are configured to cause the processor to: acquire location information of an external device to which the electronic device transmits and receives signals through the communication circuit, wherein the location information comprises a distance and a direction of the external device with respect to the electronic device; control the display to display a user interface in a narrow and long region extended along at least one edge region (11, 12, 13, 14) formed in the display, wherein controlling the display to display the user interface comprises using a narrow and long region extended along an edge region adjacent to the external device to indicate the direction in a situation in which the distance between the electronic device and the external device exceeds a predetermined value and increases. acquire location information of an external device to which the electronic device transmits and receives signals through the communication circuit, wherein the location information comprises a distance and a direction of the external device with respect to the electronic device; control the display to display a user interface in a narrow and long region extended along at least one edge region (11, 12, 13, 14) formed in the display, wherein controlling the display to display the user interface comprises using a narrow and long region extended along an edge region adjacent to the external device to indicate the direction in a situation in which the distance between the electronic device and the external device exceeds a predetermined value and increases.
An optical detector comprising: a first substrate in which a plurality of wells are formed; a second substrate in which a heating means is provided to heat the wells; a third substrate in which a plurality of photoirradiation means are provided in alignment with the wells; and a fourth substrate in which a plurality of photodetection means are provided in alignment with the wells, wherein a plurality of condenser lenses are provided between the photoirradiation means and wells, and wherein a plurality of condenser lenses are provided between the wells and photodetection means, wherein the first and second substrates are provided between the third and fourth substrate, and wherein in the optical detector said substrates are stacked one on the other. a first substrate in which a plurality of wells are formed; a second substrate in which a heating means is provided to heat the wells; a third substrate in which a plurality of photoirradiation means are provided in alignment with the wells; and a fourth substrate in which a plurality of photodetection means are provided in alignment with the wells, wherein a plurality of condenser lenses are provided between the photoirradiation means and wells, and wherein a plurality of condenser lenses are provided between the wells and photodetection means, wherein the first and second substrates are provided between the third and fourth substrate, and wherein in the optical detector said substrates are stacked one on the other.
A dust collector, comprising: a cylindrical housing configured to form an outer appearance of the dust collector; a primary cyclone unit formed inside the housing to cause a swirling flow to separate dust from air introduced into the housing; a secondary cyclone unit formed with a set of axial inlet type cyclones (1611, 1612, 1621, 1622) configured to receive air and fine dust that have passed through the cyclone, and cause a swirling flow to separate the fine dust from the air; and a mesh disposed at an outer side of the secondary cyclone unit to form a boundary between the primary cyclone unit and the secondary cyclone unit, characterized in that the set of axial inlet type cyclones (1611, 1612, 1621, 1622) comprises: a first group (1611, 1621) stacked in multiple stages, an inlet of which is arranged toward the mesh; and a second group (1621, 1622) disposed on one side and the other side of the first group, respectively, an inlet and an outlet of which are arranged to face a height direction of the dust collector. a cylindrical housing configured to form an outer appearance of the dust collector; a primary cyclone unit formed inside the housing to cause a swirling flow to separate dust from air introduced into the housing; a secondary cyclone unit formed with a set of axial inlet type cyclones (1611, 1612, 1621, 1622) configured to receive air and fine dust that have passed through the cyclone, and cause a swirling flow to separate the fine dust from the air; and a mesh disposed at an outer side of the secondary cyclone unit to form a boundary between the primary cyclone unit and the secondary cyclone unit, characterized in that the set of axial inlet type cyclones (1611, 1612, 1621, 1622) comprises: a first group (1611, 1621) stacked in multiple stages, an inlet of which is arranged toward the mesh; and a second group (1621, 1622) disposed on one side and the other side of the first group, respectively, an inlet and an outlet of which are arranged to face a height direction of the dust collector. a first group (1611, 1621) stacked in multiple stages, an inlet of which is arranged toward the mesh; and a second group (1621, 1622) disposed on one side and the other side of the first group, respectively, an inlet and an outlet of which are arranged to face a height direction of the dust collector.
Method for establishing a device-to-device, D2D, communication session between mobile devices (MD1, MD2) which are mutually connectable via a D2D communication channel and individually connectable to a mobile network, comprising: - preloading an initiation key on each of the mobile devices (MD1, MD2), the initiation key being associated with a validity period; and on each of the mobile devices (MD1, MD2): - verifying a validity of the initiation key based on a current time; - if the initiation key is deemed valid, generating a session key by using the initiation key in performing (164, 166) a key agreement procedure between the mobile devices (MD1, MD2) over the D2D communication channel, the key agreement procedure resulting in the session key if the initiation key as used in the key agreement procedure by each of the mobile devices matches; and - establishing the D2D communication session over the D2D communication channel based on the session key. - preloading an initiation key on each of the mobile devices (MD1, MD2), the initiation key being associated with a validity period; and - verifying a validity of the initiation key based on a current time; - if the initiation key is deemed valid, generating a session key by using the initiation key in performing (164, 166) a key agreement procedure between the mobile devices (MD1, MD2) over the D2D communication channel, the key agreement procedure resulting in the session key if the initiation key as used in the key agreement procedure by each of the mobile devices matches; and - establishing the D2D communication session over the D2D communication channel based on the session key.
An apparatus comprising: a one piece patch having a plurality of layers including an electronics layer sandwiched by two protective layers (56, 58) adaptable to be attached to a patient, a light emitter and a light detector each mounted to said patch and extending from said electronics layer, said light detector detecting the light from said light emitter passing through or reflected from the patient and acquiring therefrom data relating to at least the oxygen saturation level of blood of the patient, an electronic circuit mounted to the electronics layer of said patch, the light emitter and the light detector being in electrical interconnection with and controlled by the electronic circuit in the electronics layer so that at least the oxygen saturation level of blood of the patient can be calculated from the data acquired by the light detector, a transceiver mounted to the electronics layer of said patch to enable said patch to at least transmit a signal representative of the oxygen saturation level of blood (SpO 2) or the acquired data of the patient to a remote device, power source providing means mounted to said patch for supplying power to said electronic circuit, said transceiver and said light emitter, an adhesive layer provided at the patch to enable said patch to be removably attached to the patient, and a sheet protecting the adhesive layer of said patch that comes into contact with the patient and the respective contact surfaces of said light emitter and said light detector, wherein said patch is activated when said sheet is peeled off from the adhesive layer, wherein said protective layers (56, 58) each are a moisture resistant and electrically insulation barrier layers, and wherein one of said two barrier layers is on the lower side of said electronics layer and the other of the two barrier layers is on the upper side of said electronics layer to protect said electronics layer and said electronic circuit and other components mounted to said electronics layer.