mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a User Equipment, UE, for reporting power headroom, the method comprises: - receiving , via Radio Resource Control, RRC, protocol, a parameter indicating whether simultaneous transmission of Physical Uplink Shared Channel, PUSCH, and Physical Uplink Control Channel, PUCCH, is possible; - configuring the uplink transmission based on the received parameter; - determining power headroom for transmission on at least a PUCCH, when simultaneous transmission of PUSCH and PUCCH is possible; and - transmitting to a base station at least one power headroom report indicating the power headroom for transmission on at least the PUCCH. - receiving , via Radio Resource Control, RRC, protocol, a parameter indicating whether simultaneous transmission of Physical Uplink Shared Channel, PUSCH, and Physical Uplink Control Channel, PUCCH, is possible; - configuring the uplink transmission based on the received parameter; - determining power headroom for transmission on at least a PUCCH, when simultaneous transmission of PUSCH and PUCCH is possible; and - transmitting to a base station at least one power headroom report indicating the power headroom for transmission on at least the PUCCH.
A fiber layer comprising: a filament network comprising discontinuous filaments , wherein said discontinuous filaments comprise at least two different types and at least two different lengths, and wherein said types of said discontinuous filaments are configured to impart selected functional characteristics to said filament network; and a carbon fiber reinforcement material comprising a plurality of continuous carbon fiber bundles pre-impregnated with a resin matrix suitable for forming a composite structure wherein the resin matrix comprises a matrix material of the composite structure, wherein said filament network is bound to said fiber bundles by mechanical, thermal or chemical binding. a filament network comprising discontinuous filaments , wherein said discontinuous filaments comprise at least two different types and at least two different lengths, and wherein said types of said discontinuous filaments are configured to impart selected functional characteristics to said filament network; and a carbon fiber reinforcement material comprising a plurality of continuous carbon fiber bundles pre-impregnated with a resin matrix suitable for forming a composite structure wherein the resin matrix comprises a matrix material of the composite structure, wherein said filament network is bound to said fiber bundles by mechanical, thermal or chemical binding.
An anchoring implant for anchoring a suture to bone or tissue, comprising an implant constructed of a biaxial braided material forming a three-dimensional structure having a three-dimensional tubular shape with one open end and one closed end and defining a resident volume , and a suture connected to the implant, wherein the suture is configured to slidably attach to the implant so that the suture slides through or along the walls of the three-dimensional structure of the anchoring implant and to pass around the closed end of the implant so that when the suture is tensioned and some counter traction is applied at the open end of the anchoring implant the implant changes from a first configuration in which the implant is elongate into a second configuration in which the implant is compressed axially and extended radially relative to the first configuration.
A method for depolluting contaminated sands (S1), in particular foundry sands, comprising mineral and organic pollutants, characterised in that it comprises: - a step of preparing a substrate (S2) by adding to the contaminated sands (S1) a porous carbonaceous material (CA) selected so as to fix mineral pollutants, in particular fluorides; - a phytoremediation step consisting in growing on the substrate (S2) plants selected so as to degrade at least part of the organic pollutants, the phytoremediation step producing intermediate sands (S3) from the substrate (S2) ; - a step of separating the porous carbonaceous material (CA) from the intermediate sands (S3), the separation step producing treated sands (S4). - a step of preparing a substrate (S2) by adding to the contaminated sands (S1) a porous carbonaceous material (CA) selected so as to fix mineral pollutants, in particular fluorides; - a phytoremediation step consisting in growing on the substrate (S2) plants selected so as to degrade at least part of the organic pollutants, the phytoremediation step producing intermediate sands (S3) from the substrate (S2) ; - a step of separating the porous carbonaceous material (CA) from the intermediate sands (S3), the separation step producing treated sands (S4).
A monitoring system for an escalator , the monitoring system comprising: a local gateway device ; an analytic engine in communication with the local gateway device through a cloud computing network ; a passenger detection engine in communication with the analytic engine through a cloud computing network , the passenger detection engine being configured to determine passenger data of the escalator ; and a sensing apparatus in wireless communication with the local gateway device through a short-range wireless protocol, the sensing apparatus comprising: an inertial measurement unit sensor configured to detect acceleration data of the escalator , characterized in that at least one of the sensing apparatus , the local gateway device , and the analytic engine is configured to determine a condition based monitoring (CBM) health Score of the escalator in response to at least the acceleration data , wherein the analytic engine is configured to adjust the CBM health score in response to at least the passenger data . a local gateway device ; an analytic engine in communication with the local gateway device through a cloud computing network ; a passenger detection engine in communication with the analytic engine through a cloud computing network , the passenger detection engine being configured to determine passenger data of the escalator ; and a sensing apparatus in wireless communication with the local gateway device through a short-range wireless protocol, the sensing apparatus comprising: an inertial measurement unit sensor configured to detect acceleration data of the escalator , characterized in that at least one of the sensing apparatus , the local gateway device , and the analytic engine is configured to determine a condition based monitoring (CBM) health Score of the escalator in response to at least the acceleration data , an inertial measurement unit sensor configured to detect acceleration data of the escalator , characterized in that at least one of the sensing apparatus , the local gateway device , and the analytic engine is configured to determine a condition based monitoring (CBM) health Score of the escalator in response to at least the acceleration data , wherein the analytic engine is configured to adjust the CBM health score in response to at least the passenger data .
A child-resistant closure for a container, the child-resistant closure comprising outer and inner nested caps each having a top panel and a side skirt depending generally peripherally therefrom, said outer cap loosely generally encompassing said inner cap to allow relative rotary and axial movement therebetween, the rotary movement being in a direction of rotation around a longitudinal axis of the child-resistant closure , the axial movement being in a direction along said longitudinal axis, the outer and inner caps having corresponding drive formations which can be brought into driving engagement when the outer and inner caps are moved axially towards one another to a first axial position, one of the outer and inner caps comprising one or more spring members for urging the outer and inner caps axially away from each other to a second axial position, the other of the outer and inner caps comprising one or more ramps , the one or more spring members providing a biasing force to maintain said outer and inner caps in the second axial position and drivingly engaging the ramps in the second axial position so as to drive the outer and inner caps together in a screwing direction, the screwing direction being in a first direction of rotation around said longitudinal axis, but slipping over the one or more ramps freely in an unscrewing direction the unscrewing direction being in a second direction of rotation around said longitudinal axis, the second direction of rotation opposite the first direction of rotation, downward pressure on the outer cap overcoming the spring member bias to move the outer and inner caps to the first axial position to allow unscrewing of the child-resistant closure using the drive formations , in which the or each ramp is profiled to support the one or more spring members substantially continuously as the spring member passes over in the unscrewing direction, characterised in that the or each ramp has a variable section sweep having a generally constant radius trajectory and a section that sweeps along the radius that constantly changes, in which the section varies as the ramp height increases, such that the ramp face is not flat, and in which the profile of the ramp constantly changes as the ramp height increases, and the ramp height increases in the unscrewing direction, whereby the or each spring member is in maximum contact with the or each ramp through rotation in the unscrewing direction.
A method of operation of a Master evolved Node B, MeNB where data traffic is carried over licensed spectrum by the MeNB and over unlicensed spectrum by a Secondary evolved Node B, SeNB or a WiFi access point, WiFi AP , and where the MeNB controls whether data traffic is carried via licensed spectrum or via unlicensed spectrum, which method comprises: providing an indication to a mobility management entity, MME, , which indication indicates how much data traffic was carried over unlicensed spectrum by the SeNB or the WiFi AP for a certain wireless device .
Transport device for the transport of pulverous or granular process material (P) with an open or in itself closed transport frame made of metal, which is provided for the transport of the process material (P), which is held by a support device and which is connected to an ultrasonic device that comprises an ultrasonic generator , an ultrasonic transducer connected to the ultrasonic generator and a coupling rod , which is connected to the ultrasonic transducer and which is having a front-sided end piece and a rear-sided end piece , and wherein a flat distributor body made of metal is provided, which has an upper side , a lower side , a rear side and peripherally at least one connection side , wherein the rear-sided end piece of the coupling rod is connected to the ultrasonic transducer characterised in that the front-sided end piece of the coupling rod is welded to the rear side , the upper side or the lower side of the distributor body , that the at least one connection side of the distributor body is integrally connected with or welded to the at least one transport frame and that the distributor body has coupling fingers at the connection side which are separated from one another by intermediate spaces which coupling fingers have identical or different cross sections.
Strapping machine for strapping a product to be strapped using a weldable plastics band, the strapping machine comprising a machine table for receiving the product to be strapped during strapping and at least one strapping device, the strapping machine comprising at least one camera , and the camera being directed at the product to be strapped at least temporarily, characterized in that the camera is arranged on a linear guide , and in that the at least one camera can be moved orthogonally (Z-axis) to a plane spanned by the machine table.
A method of making an optical biometric sensor, comprising: forming a collimator filter layer on an image sensor wafer, wherein a plurality of light collimating apertures in the collimator filter layer are aligned with a plurality of light sensing elements in the image sensor wafer; and after the forming the collimator filter layer on the image sensor wafer, singulating the image sensor wafer into a plurality of individual optical sensors. wherein one or more redistribution layers are disposed on a first side of the image sensor wafer, characterised in that forming the collimator filter layer comprises forming the plurality of light collimating apertures and routing circuitry for the light sensing elements of the image sensor wafer in the one or more redistribution layers. forming a collimator filter layer on an image sensor wafer, wherein a plurality of light collimating apertures in the collimator filter layer are aligned with a plurality of light sensing elements in the image sensor wafer; and after the forming the collimator filter layer on the image sensor wafer, singulating the image sensor wafer into a plurality of individual optical sensors. wherein one or more redistribution layers are disposed on a first side of the image sensor wafer, characterised in that forming the collimator filter layer comprises forming the plurality of light collimating apertures and routing circuitry for the light sensing elements of the image sensor wafer in the one or more redistribution layers.
A cross traffic detection system for a vehicle , the system comprising: a camera arrangement with at least one camera ; a data storage device ; and a controller ; wherein the system is configured for capturing, by means of the camera arrangement , an image sequence comprising consecutive images of an environment of the vehicle ; wherein the system is configured for storing the images of the image sequence in the data storage device ; wherein the controller is configured for determining in at least two of the images an image section, in which a light cone emitted by an illumination device of a road user moving in a transverse direction with respect to a moving direction of the vehicle is captured; wherein the road user is a traffic participant; and wherein the illumination device is a spotlight, a head lamp, a head light or a reflector; wherein the image section refers to a subset of image data of the image, in which a representation and/or projection of the light cone is comprised; wherein the light cone refers to a region of the camera's field of view, which region is illuminated by the illumination device; and wherein the controller is configured to determine a reflection of the light cone on a road surface in the at least two image sections, and wherein the controller is configured to determine whether the vehicle and the road user moving in the transverse direction with respect to a moving direction of the vehicle approach each other by comparing the determined image sections in the consecutive images and taking into account the determined reflections. a camera arrangement with at least one camera ; a data storage device ; and a controller ; wherein the system is configured for capturing, by means of the camera arrangement , an image sequence comprising consecutive images of an environment of the vehicle ; wherein the system is configured for storing the images of the image sequence in the data storage device ; wherein the controller is configured for determining in at least two of the images an image section, in which a light cone emitted by an illumination device of a road user moving in a transverse direction with respect to a moving direction of the vehicle is captured; wherein the road user is a traffic participant; and wherein the illumination device is a spotlight, a head lamp, a head light or a reflector; wherein the image section refers to a subset of image data of the image, in which a representation and/or projection of the light cone is comprised; wherein the light cone refers to a region of the camera's field of view, which region is illuminated by the illumination device; and wherein the controller is configured to determine a reflection of the light cone on a road surface in the at least two image sections, and wherein the controller is configured to determine whether the vehicle and the road user moving in the transverse direction with respect to a moving direction of the vehicle approach each other by comparing the determined image sections in the consecutive images and taking into account the determined reflections.
Microphone comprising at least one perforated rigid membrane and at least one flexible membrane placed at a distance from the rigid membrane so as to form an enclosure between the rigid membrane and the flexible membrane , the flexible membrane being suited to being displaced by a sound vibration of air outside of the microphone via the perforated rigid membrane , said microphone being characterised in that it comprises means for measuring the quantity of at least one gas breathed out by a user, said means for measuring being mounted in the enclosure in order to measure at least one gas present in said enclosure , the means for measuring comprising at least one gas chromatograph .
Thermal Storage System (TSS) by Phase Change Material (PCM) comprising: - a tank intended to contain a Phase Change Material (PCM) , - a circulation system immersed in the tank , intended for the circulation of a heat-transfer fluid coming from an external network for circulating heat-transfer fluid , characterised in that it comprises a device for controlling the crystallisation of the Phase Change Material (PCM) comprising: - an injection module configured to inject, in the lower portion of the tank , in the Phase Change Material (PCM) , a two-phase solvent, in the liquid state, - an evacuation module configured to evacuate the two-phase solvent in the gaseous state in the upper portion of the tank , opposite the lower portion. - a tank intended to contain a Phase Change Material (PCM) , - a circulation system immersed in the tank , intended for the circulation of a heat-transfer fluid coming from an external network for circulating heat-transfer fluid , - an injection module configured to inject, in the lower portion of the tank , in the Phase Change Material (PCM) , a two-phase solvent, in the liquid state, - an evacuation module configured to evacuate the two-phase solvent in the gaseous state in the upper portion of the tank , opposite the lower portion.
A computer-implemented method comprising: receiving, at a mobile computing device , a first input that indicates a user touched a touchscreen display of the mobile computing device with a pointer; determining a position of the mobile computing device with respect to the user based on information other than information from the user's touching of the touchscreen display, wherein determining the position of the mobile computing device with respect to the user comprises determining how the user is holding the mobile computing device ; determining a level of pressure with which the pointer touched the touchscreen display ; identifying the pointer as a particular finger or type of finger of the user based upon, at least, the determined position of the mobile computing device with respect to the user and the determined level of pressure with which the pointer touched the touchscreen display ; and interpreting the received first input on the touchscreen display of the mobile computing device using the identified finger or type of finger. receiving, at a mobile computing device , a first input that indicates a user touched a touchscreen display of the mobile computing device with a pointer; determining a position of the mobile computing device with respect to the user based on information other than information from the user's touching of the touchscreen display, wherein determining the position of the mobile computing device with respect to the user comprises determining how the user is holding the mobile computing device ; determining a level of pressure with which the pointer touched the touchscreen display ; identifying the pointer as a particular finger or type of finger of the user based upon, at least, the determined position of the mobile computing device with respect to the user and the determined level of pressure with which the pointer touched the touchscreen display ; and interpreting the received first input on the touchscreen display of the mobile computing device using the identified finger or type of finger.
A light-emitting diode (LED) light engine comprising: an LED array comprising a plurality of color sets of LEDs, wherein each color set of LEDs emits light of a characteristic color, the characteristic color of each color set being different from the characteristic color of the other color sets; and a partial diffuser , configured to diffuse light emitted from LEDs of a selected first subset of LEDs in the LED array and leave undiffused light emitted from LEDs of a second subset of LEDs in the LED array, wherein the first subset of LEDs comprises LEDs having a first ratio of color sets and the second subset of LEDs comprises LEDs having a second ratio of color sets, the first ratio being different than the second ratio. an LED array comprising a plurality of color sets of LEDs, wherein each color set of LEDs emits light of a characteristic color, the characteristic color of each color set being different from the characteristic color of the other color sets; and a partial diffuser , configured to diffuse light emitted from LEDs of a selected first subset of LEDs in the LED array and leave undiffused light emitted from LEDs of a second subset of LEDs in the LED array, wherein the first subset of LEDs comprises LEDs having a first ratio of color sets and the second subset of LEDs comprises LEDs having a second ratio of color sets, the first ratio being different than the second ratio.