mhurhangee/patent-ind-claim-en huggingface dataset:
A user apparatus comprising: a reception unit configured to receive a downlink signal, by using symbols included in a region, to which the downlink signal is mapped, and a multiple use region, to which an uplink signal or a downlink signal is mapped; and a transmission unit configured to map the uplink signal to the multiple use region and transmit the mapped result to a base station in the case where information, indicating that the uplink signal is to be mapped to the multiple use region, is transmitted from the base station, characterised in that the information indicating that the uplink signal is to be mapped to the multiple use region is included in downlink control signal for scheduling of the uplink signal or the downlink signal. a reception unit configured to receive a downlink signal, by using symbols included in a region, to which the downlink signal is mapped, and a multiple use region, to which an uplink signal or a downlink signal is mapped; and a transmission unit configured to map the uplink signal to the multiple use region and transmit the mapped result to a base station in the case where information, indicating that the uplink signal is to be mapped to the multiple use region, is transmitted from the base station, characterised in that the information indicating that the uplink signal is to be mapped to the multiple use region is included in downlink control signal for scheduling of the uplink signal or the downlink signal.
A light source for spectroscopic analysis, which is used when analyzing a solid-phase sample or a liquid-phase sample by irradiating the sample with light and by measuring a spectrum of light from the sample that has been irradiated, the light source comprising: a pulse laser source ; a nonlinear element that outputs supercontinuum light by producing a nonlinear effect in light from the pulse laser source, the supercontinuum light having a wavelength range including 1100 nm to 1200 nm; and a pulse stretching element that broadens a pulse width of the supercontinuum light from the nonlinear element, wherein the pulse stretching element is an element that performs pulse stretching such that a relationship between wavelength and elapsed time within one pulse in the wavelength range of 1100 nm to 1200 nm are in a one-to-one correspondence, and that performs the pulse stretching such that time dispersion per 1 nm of wavelength is 10 picoseconds or greater, characterized in that the pulse stretching element is an element that performs the pulse stretching such that a spectral intensity flatness in the wavelength range of 1100 nm to 1200 nm is within ±50%. a pulse laser source ; a nonlinear element that outputs supercontinuum light by producing a nonlinear effect in light from the pulse laser source, the supercontinuum light having a wavelength range including 1100 nm to 1200 nm; and a pulse stretching element that broadens a pulse width of the supercontinuum light from the nonlinear element, wherein the pulse stretching element is an element that performs pulse stretching such that a relationship between wavelength and elapsed time within one pulse in the wavelength range of 1100 nm to 1200 nm are in a one-to-one correspondence, and that performs the pulse stretching such that time dispersion per 1 nm of wavelength is 10 picoseconds or greater, characterized in that the pulse stretching element is an element that performs the pulse stretching such that a spectral intensity flatness in the wavelength range of 1100 nm to 1200 nm is within ±50%.
A method for opening and/or using at least one vehicle , comprising the steps of: a) receiving, by a mobile terminal , in particular a smart phone , an identification identifier assigned to a target vehicle ; b) transmitting the identification identifier , in particular over a mobile radio network , to a server ; c) receiving a key data set from the server , in particular from a mobile terminal ; d) transmitting the key data set and/or a code generated based on the key data set as a remote code to the target vehicle , in particular over a direct connection and/or an ad hoc network between the target vehicle and the mobile terminal ; e) receiving the remote code by the target vehicle ; f) generating at least one local code by the target vehicle ; g) comparing the remote code with the at least one local code by the target vehicle ; h) opening and/or enabling the target vehicle and/or executing a vehicle command on the target vehicle , when at least one of the local codes complies with the remote code , characterized in that the key data set comprises a seed key (45, 45', 45"), wherein the key data set is received from the mobile terminal , and the mobile terminal generates the remote code (43, 43', 43") while using the seed key (45, 45', 45") by means of a pseudo random number generator . a) receiving, by a mobile terminal , in particular a smart phone , an identification identifier assigned to a target vehicle ; b) transmitting the identification identifier , in particular over a mobile radio network , to a server ; c) receiving a key data set from the server , in particular from a mobile terminal ; d) transmitting the key data set and/or a code generated based on the key data set as a remote code to the target vehicle , in particular over a direct connection and/or an ad hoc network between the target vehicle and the mobile terminal ; e) receiving the remote code by the target vehicle ; f) generating at least one local code by the target vehicle ; g) comparing the remote code with the at least one local code by the target vehicle ; h) opening and/or enabling the target vehicle and/or executing a vehicle command on the target vehicle , when at least one of the local codes complies with the remote code ,
An information processing server comprising: a control unit configured to control an information processing apparatus such that the information processing apparatus cannot use a function provided by firmware, in response to acquiring, from the information processing apparatus, a first report indicating that the firmware is installed in the information processing apparatus, and control the information processing apparatus such that the information processing apparatus can use the function, in response to acquiring, from the information processing apparatus, a second report indicating that an application configured to use the function is installed in the information processing apparatus. control an information processing apparatus such that the information processing apparatus cannot use a function provided by firmware, in response to acquiring, from the information processing apparatus, a first report indicating that the firmware is installed in the information processing apparatus, and control the information processing apparatus such that the information processing apparatus can use the function, in response to acquiring, from the information processing apparatus, a second report indicating that an application configured to use the function is installed in the information processing apparatus.
Arrangement for adaptive bit recovery including an adaptive equalizer and an adaptive partial response maximum likelihood detector , characterized in that the arrangement further includes: - an overflow control block for the adaptive equalizer for monitoring the adaptation coefficients and transmitting said coefficients to a range checker , said range checker selects via a selector the coefficients having the detected maximum values, - a scaling block for applying a scaling to the respective data paths of the selected coefficient values when the overflow control block indicates that one or more of the coefficients run out of their intended data range, wherein the scaling is applied such that a middle coefficient has the largest value. - an overflow control block for the adaptive equalizer for monitoring the adaptation coefficients and transmitting said coefficients to a range checker , said range checker selects via a selector the coefficients having the detected maximum values, - a scaling block for applying a scaling to the respective data paths of the selected coefficient values when the overflow control block indicates that one or more of the coefficients run out of their intended data range, wherein the scaling is applied such that a middle coefficient has the largest value.
A method comprising: determining that an interactable object is within a field of view of a head mounted display while the head mounted display is operating in a first power mode; and transitioning the head mounted display from operation in the first power mode to operation in a second power mode based, at least in part, on the determination that the interactable object is within the field of view, such that the head mounted display consumes more power during operation in the second power mode than during operation in the first power mode, characterized in that the interactable object is identified to be a particular interactable object for interaction by way of an interaction indicator , wherein the head mounted display is caused to display the interaction indicator that indicates that the particular interactable object is currently within the field of view of the head mounted display and that receipt of an input from a user will cause selection of the particular interactable object such that at least one user interface element associated with the particular interactable object is caused to be displayed. determining that an interactable object is within a field of view of a head mounted display while the head mounted display is operating in a first power mode; and transitioning the head mounted display from operation in the first power mode to operation in a second power mode based, at least in part, on the determination that the interactable object is within the field of view, such that the head mounted display consumes more power during operation in the second power mode than during operation in the first power mode, characterized in that the interactable object is identified to be a particular interactable object for interaction by way of an interaction indicator , wherein the head mounted display is caused to display the interaction indicator that indicates that the particular interactable object is currently within the field of view of the head mounted display and that receipt of an input from a user will cause selection of the particular interactable object such that at least one user interface element associated with the particular interactable object is caused to be displayed.
A porous, composite bone graft implant comprising: a first component comprising a plurality of bioactive glass fibers and bioactive glass granules , wherein the first component is in the form of a cluster ; and a second component comprising a bioactive glass material in the form of a shell ; each of the cluster and shell having a different resorption capacity; characterised in that the bioactive glass material of the second component in the form of a shell extends over the cluster as a whole and in that the plurality of glass fibers are unfused, the composite implant having a pore size distribution including pores characterized by pore diameters ranging from 100 nanometers to 1 millimeter. a first component comprising a plurality of bioactive glass fibers and bioactive glass granules , wherein the first component is in the form of a cluster ; and a second component comprising a bioactive glass material in the form of a shell ; each of the cluster and shell having a different resorption capacity; characterised in that the bioactive glass material of the second component in the form of a shell extends over the cluster as a whole and in that the plurality of glass fibers are unfused, the composite implant having a pore size distribution including pores characterized by pore diameters ranging from 100 nanometers to 1 millimeter.
Combined aircraft wing scan and runway turn-off light unit , comprising: a housing for mounting the combined aircraft wing scan and runway turn-off light unit to a side portion of a fuselage of an aircraft , at least one light source , and an optical system for shaping a light emission distribution of the combined aircraft wing scan and runway turn-off light unit, wherein the light emission distribution comprises a first illumination region for illuminating a wing region of the aircraft and a second illumination region for illuminating a lateral forward airfield region, characterized in that the at least one light source and the optical system are stationary within the combined aircraft wing scan and runway turn-off light unit, having fixed positions within the housing , the at least one light source comprises a plurality of light sources having at least one first light source and at least one second light source , wherein light from the at least one first light source is directed to the first illumination region and wherein light from the at least one second light source is directed to the second illumination region , and the optical system comprises at least one first optical system for directing the light from the at least one first light source to the first illumination region and at least one second optical system for directing the light from the at least one second light source to the second illumination region . a housing for mounting the combined aircraft wing scan and runway turn-off light unit to a side portion of a fuselage of an aircraft , at least one light source , and an optical system for shaping a light emission distribution of the combined aircraft wing scan and runway turn-off light unit, wherein the light emission distribution comprises a first illumination region for illuminating a wing region of the aircraft and a second illumination region for illuminating a lateral forward airfield region, characterized in that the at least one light source and the optical system are stationary within the combined aircraft wing scan and runway turn-off light unit, having fixed positions within the housing , the at least one light source comprises a plurality of light sources having at least one first light source and at least one second light source , wherein light from the at least one first light source is directed to the first illumination region and wherein light from the at least one second light source is directed to the second illumination region , and the optical system comprises at least one first optical system for directing the light from the at least one first light source to the first illumination region and at least one second optical system for directing the light from the at least one second light source to the second illumination region .
A high-strength high-elongation tinned primary plate, containing by weight from 0.065 to 0.12% of carbon, from 0.2 to 0.8% of manganese, from 0.01 to 0.08% of aluminum, from 0.003 to 0.015% of nitrogen, and one or more of the following component(s) by weight from 0.001 to 0.005% of boron, from 0.01 to 0.05% of chromium, from 0.001 to 0.1% of titanium, from 0.001 to 0.2% of niobium, from 0.001 to 0.2% of copper, from 0.002 to 0.008% of molybdenum, the remainder being iron and the inevitable trace impurities, wherein, the tinned primary plate has a yield strength of Rp 0.2 ≥520 MPa, and percentage elongations A% in rolling direction RD, 45° direction and perpendicular direction TD, which are all greater than or equal to 10% after bake-hardening, wherein the tinned primary plate has a microstructure of ferrite plus granular cementite with a banded distribution.
A process for producing an absorbent structure comprising the following steps: - providing a carrier layer ; - depositing and positioning absorbent material onto the carrier layer according to a continuously connected absorbent material pattern of absorbent material clusters with areas where substantially no absorbent material is present, in between the absorbent material clusters; wherein the areas are intended to act as additional distribution and transport channel facilitating the flow of liquid away from the point of insult and toward the absorbent material clusters; - providing an auxiliary layer covering the absorbent material so as to form a sandwich structure of the carrier layer , the auxiliary layer and the absorbent material ; - attaching an adhesive to the carrier layer and/or to the auxiliary layer prior to the bringing together of the sandwich structure; - after the bringing together of the sandwich structure, attaching the carrier layer to the auxiliary layer to provide permanent primary bonding regions and substantially detachable or temporary secondary bonding regions ; said secondary bonding regions being configured to release under the swelling force of the absorbent materials and/or under the influence of water; and said primary bonding regions being arranged in a primary attachment grid composed of continuous lines so as to allow for additional liquid distribution and transport; wherein said continuous lines are adjoining the absorbent material clusters. - providing a carrier layer ; - depositing and positioning absorbent material onto the carrier layer according to a continuously connected absorbent material pattern of absorbent material clusters with areas where substantially no absorbent material is present, in between the absorbent material clusters; wherein the areas are intended to act as additional distribution and transport channel facilitating the flow of liquid away from the point of insult and toward the absorbent material clusters; - providing an auxiliary layer covering the absorbent material so as to form a sandwich structure of the carrier layer , the auxiliary layer and the absorbent material ; - attaching an adhesive to the carrier layer and/or to the auxiliary layer prior to the bringing together of the sandwich structure; - after the bringing together of the sandwich structure, attaching the carrier layer to the auxiliary layer to provide permanent primary bonding regions and substantially detachable or temporary secondary bonding regions ; said secondary bonding regions being configured to release under the swelling force of the absorbent materials and/or under the influence of water; and said primary bonding regions being arranged in a primary attachment grid composed of continuous lines so as to allow for additional liquid distribution and transport; wherein said continuous lines are adjoining the absorbent material clusters.
A system for supplying fuel to nozzles of a combustor, comprising: a. a liquid fuel manifold ; b. a water manifold ; c. a fluid junction between the liquid fuel manifold and the water manifold configured to create an emulsion fuel; d. a turbulator downstream from the fluid junction , wherein the turbulator receives the emulsion fuel from the fluid junction ; e. a distributor downstream from the turbulator , wherein the distributor comprises an inlet and a plurality of outlets , characterized in that the distributor further comprises a body that defines a cavity having a bottom surface opposing the inlet , wherein the plurality of outlets connect to the cavity at the bottom surface ; wherein the distributor further comprises means for dividing the emulsion fuel from the turbulator substantially equally, wherein said means comprise a projection extending from the body into a center portion of the cavity of the distributor . a. a liquid fuel manifold ; b. a water manifold ; c. a fluid junction between the liquid fuel manifold and the water manifold configured to create an emulsion fuel; d. a turbulator downstream from the fluid junction , wherein the turbulator receives the emulsion fuel from the fluid junction ; e. a distributor downstream from the turbulator , wherein the distributor comprises an inlet and a plurality of outlets , characterized in that
A method of determining boundaries between fractions in a fractionated sample, the method comprising the steps of: providing the fractionated sample in a receptacle , the receptacle having at least a transparent window; positioning the receptacle in a known position relative to datum means; capturing an image of the receptacle and datum means; and processing the image to determine the position of boundaries between the fractions in the sample relative to the datum means; characterised in that the known position of the receptacle is set by positioning the receptacle with its lower end in contact with the datum means, thereby enabling the position of the lower end of the receptacle to be determined and the relative positions of the fraction boundaries in the sample to be determined. providing the fractionated sample in a receptacle , the receptacle having at least a transparent window; positioning the receptacle in a known position relative to datum means; capturing an image of the receptacle and datum means; and processing the image to determine the position of boundaries between the fractions in the sample relative to the datum means;
A sheet of sandpaper , comprising: (a) a backing layer having opposed first and second major surfaces (12a; 12b); (b) an adhesive make coat on the second major surface ; (c) abrasive particles at least partially embedded in the make coat , thereby defining an abrasive surface; and (d) a non-slip coating layer on the first major surface , characterised by the non-slip coating layer providing a smooth outer surface , that does not include a textured surface or a macroscopic three dimensional surface topography. (a) a backing layer having opposed first and second major surfaces (12a; 12b); (b) an adhesive make coat on the second major surface ; (c) abrasive particles at least partially embedded in the make coat , thereby defining an abrasive surface; and (d) a non-slip coating layer on the first major surface , characterised by the non-slip coating layer providing a smooth outer surface , that does not include a textured surface or a macroscopic three dimensional surface topography.
Process for the absorption of gases in liquids in a device, in which the gas to be absorbed is compressed, the liquid is added to the gas in the form of droplets during the compression, wherein the compression pressure is increased continuously up to the desired final pressure, wherein the compression pressure is increased by a reduction in the volume of the device in which the absorption takes place, characterized in that the device is designed as a piston compressor.
Clamping means of a disc brake for a commercial vehicle, having a pivotable brake lever which rests on the one side against an inner wall of a brake caliper and on the other side directly on a bridge arranged displaceably in the brake caliper and carrying at least one brake piston, wherein between the brake lever and the bridge is provided a rolling roller arrangement which rests in a twist-proof and displacement-proof manner against the bridge , characterised in that the bridge and at least one rolling roller of the rolling roller arrangement are connected by at least one securing element.