mhurhangee/patent-ind-claim-en huggingface dataset:
An indoor service node for an indoor environment , comprising an emulated user equipment and an indoor base station for providing Third Generation Partnership Project, 3GPP, based communications for at least one wireless device (101-103) in the indoor environment, wherein the emulated user equipment is configured to establish a back-to-back connection with the indoor base station, the indoor base station comprising a processor and a memory , said memory comprising instructions executable by said processor whereby said indoor base station is operative to: receive, from a radio network via a Broadband Access, BBA , the 3GPP based communications, said BBA being scheduled and controlled by the radio network and the indoor base station for communications between the indoor base station and the radio network; and transmit, to the emulated user equipment, the 3GPP based communications, the node comprising a processor and a memory , said memory comprising instructions executable by said processor whereby said indoor service node is operative to: transmit, to the at least one wireless device (101-103), the 3GPP communications via a wireless access point provided by the emulated user equipment, wherein the emulated user equipment is dually connectable to the indoor base station and an outdoor radio base station , said outdoor radio base station providing 3GPP communications via a wireless 3GPP link for complementing the BBA line with a wireless backhauling link provided by the outdoor radio base station , and wherein the indoor service node is further operative to, when a peak cell rate of the indoor radio base station surpasses capabilities of the BBA, pass excessive traffic over the wireless 3GPP link of the outdoor base station. receive, from a radio network via a Broadband Access, BBA , the 3GPP based communications, said BBA being scheduled and controlled by the radio network and the indoor base station for communications between the indoor base station and the radio network; and transmit, to the emulated user equipment, the 3GPP based communications, transmit, to the at least one wireless device (101-103), the 3GPP communications via a wireless access point provided by the emulated user equipment, wherein the emulated user equipment is dually connectable to the indoor base station and an outdoor radio base station , said outdoor radio base station providing 3GPP communications via a wireless 3GPP link for complementing the BBA line with a wireless backhauling link provided by the outdoor radio base station , and wherein the indoor service node is further operative to, when a peak cell rate of the indoor radio base station surpasses capabilities of the BBA, pass excessive traffic over the wireless 3GPP link of the outdoor base station.
Façade slat for deflecting an air flow comprising two main walls of a dense plate which during use are vertically oriented and are each provided with a lower edge , an upper edge and a first and second side edge , which main walls are connected to each other at the first side edge , characterized in that the second side edges of the main walls are present at a greater distance from each other than the first side edges and between these second side edges a side wall is present formed by wind-leveling mesh, wherein the façade slat has the shape of a wing profile with two curved main walls , the outward facing side of one of the main walls being convex and the outward facing side of the other main wall being hollow, and wherein the façade slat is provided on the first side edges of the main walls with fixing means for fixing the façade slat to a façade .
A drug delivery device , comprising a mechanical audible indicator capable of producing an audible signal with a volume of at least 100 dB(A) measured at a distance of approximately 150 mm, wherein the audible indicator comprises a leaf spring, and wherein the leaf spring (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) releases stored energy to generate an audible signal when changing from a biased state (S2) into a relaxed state (S1) due to a transition from a second conformation to a first conformation. wherein the audible indicator comprises a leaf spring, and wherein the leaf spring (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) releases stored energy to generate an audible signal when changing from a biased state (S2) into a relaxed state (S1) due to a transition from a second conformation to a first conformation.
A method of producing activated carbon from a coal-originating particulate feed material, the method comprising: introducing the feed material into a reaction chamber; introducing an activating gas into the reaction chamber at a velocity above the average terminal velocity of particles within the feed material; entraining the feed material in the activating gas within the reaction chamber such that a recirculating flow path for the feed material is established within the reaction chamber; and recovering activated feed material from the chamber, wherein the temperature within the reaction chamber is in the range of 600-1200°C. introducing the feed material into a reaction chamber; introducing an activating gas into the reaction chamber at a velocity above the average terminal velocity of particles within the feed material; entraining the feed material in the activating gas within the reaction chamber such that a recirculating flow path for the feed material is established within the reaction chamber; and recovering activated feed material from the chamber, wherein the temperature within the reaction chamber is in the range of 600-1200°C.
A heat exchanger for a heat pump, comprising a chamber for a working fluid; and a wall for heat exchange between the working fluid in the chamber and a substance in a space on the opposite side of the wall, said chamber comprising a structure of a filling material that is substantially non-absorbent with respect to the working fluid, said structure defining a plurality of channels for the working fluid, said channels at least partly being bounded by the wall separating the chamber from the space , said channels providing passage for the working fluid from an inlet of the chamber to an outlet of the chamber, characterised in that the maximum distance between adjacent channels of the structure is between 0.3 millimeter and 1 millimeter, or the structure is made up of a plurality of grains, said grains have an average diameter of between 0.3 millimeter and 1 millimeter, or the channels have a diameter of generally less than 1 millimeter in cross section. a chamber for a working fluid; and a wall for heat exchange between the working fluid in the chamber and a substance in a space on the opposite side of the wall, said chamber comprising a structure of a filling material that is substantially non-absorbent with respect to the working fluid, said structure defining a plurality of channels for the working fluid, said channels at least partly being bounded by the wall separating the chamber from the space , said channels providing passage for the working fluid from an inlet of the chamber to an outlet of the chamber, characterised in that the maximum distance between adjacent channels of the structure is between 0.3 millimeter and 1 millimeter, or the structure is made up of a plurality of grains, said grains have an average diameter of between 0.3 millimeter and 1 millimeter, or the channels have a diameter of generally less than 1 millimeter in cross section.
An intermediate intake-type diaphragm (OG) in which an introduction flow channel (51;510), an intermediate suction flow channel , and a curved flow channel (52;520) are defined, the introduction flow channel (51;510) extending from a radially outer side of an axial line (O) to a radially inner side to guide a first fluid (G1) toward an impeller rotating about the axial line (O), the intermediate suction flow channel being adjacent to the introduction flow channel (51;510) and extending from the radially outer side of the axial line (O) to the radially inner side to guide a second fluid (G2) toward the impeller , the curved flow channel (52;520) being connected to downstream sides of the introduction flow channel (51;510) and the intermediate suction flow channel and extending so that an inner surface is curved from a position of connection with the introduction flow channel (51;510) toward one side in the direction of the axial line (O), and the curved flow channel (52;520) guides the first fluid (G1) and the second fluid (G2) toward the impeller , the intermediate intake-type diaphragm (OG) comprising: a flow-regulating vane (54;540) that is provided in the introduction flow channel (51;510) to regulate the first fluid (G1) to flow along the radial direction; and a partition wall (9;90) that partitions the introduction flow channel (51;510) and the intermediate suction flow channel in the direction of the axial line (O), wherein a radially inner end portion of the partition wall (9;90) is located further on a radially inner side than a radially outer end portion of the flow-regulating vane (54;540) and further on a radially outer side than a boundary (F) between the introduction flow channel (51;510) and the curved flow channel (52;520), characterized in that a trailing edge portion of the flow-regulating vane (54;540) is formed to be bent in the radial direction toward the radially inner end portion, and the radially inner end portion of the partition wall (9;90) is located at a position where the trailing edge portion of the flow-regulating vane begins to follow along the radial direction. a flow-regulating vane (54;540) that is provided in the introduction flow channel (51;510) to regulate the first fluid (G1) to flow along the radial direction; and a partition wall (9;90) that partitions the introduction flow channel (51;510) and the intermediate suction flow channel in the direction of the axial line (O), wherein a radially inner end portion of the partition wall (9;90) is located further on a radially inner side than a radially outer end portion of the flow-regulating vane (54;540) and further on a radially outer side than a boundary (F) between the introduction flow channel (51;510) and the curved flow channel (52;520), characterized in that a trailing edge portion of the flow-regulating vane (54;540) is formed to be bent in the radial direction toward the radially inner end portion, and the radially inner end portion of the partition wall (9;90) is located at a position where the trailing edge portion of the flow-regulating vane begins to follow along the radial direction.
A light source unit for a vehicular head-up display configured to display a predetermined image to an occupant of the vehicle comprising: a prism-shaped multi-reflection member that has: an entrance surface ; a rectangular emission surface ; and a reflective surface that connects the entrance surface and the emission surface and is provided on an inner surface of the multi-reflection member; and a substrate that faces the entrance surface and is provided with a plurality of light sources mounted in a matrix, wherein a ratio Ra = A/B is larger than a ratio Rb = C/D, where A is the number of the light sources provided in a longer direction of the entrance surface, B is the number of the light sources provided in a shorter direction of the entrance surface, C is a longer dimension of the emission surface, and D is a shorter dimension of the emission surface, or a ratio Rc = a/b is larger than a ratio Rb = C/D, where a is the sum of lengths of light-emitting surfaces of the plurality of light sources in the longer direction of the entrance surface, b is the sum of lengths of the light-emitting surfaces of the plurality of light sources in the shorter direction of the entrance surface, C is the longer dimension of the emission surface, and D is the shorter dimension of the emission surface. a prism-shaped multi-reflection member that has: an entrance surface ; a rectangular emission surface ; and a reflective surface that connects the entrance surface and the emission surface and is provided on an inner surface of the multi-reflection member; and an entrance surface ; a rectangular emission surface ; and a reflective surface that connects the entrance surface and the emission surface and is provided on an inner surface of the multi-reflection member; and a substrate that faces the entrance surface and is provided with a plurality of light sources mounted in a matrix, wherein a ratio Ra = A/B is larger than a ratio Rb = C/D, where A is the number of the light sources provided in a longer direction of the entrance surface, B is the number of the light sources provided in a shorter direction of the entrance surface, C is a longer dimension of the emission surface, and D is a shorter dimension of the emission surface, or a ratio Rc = a/b is larger than a ratio Rb = C/D, where a is the sum of lengths of light-emitting surfaces of the plurality of light sources in the longer direction of the entrance surface, b is the sum of lengths of the light-emitting surfaces of the plurality of light sources in the shorter direction of the entrance surface, C is the longer dimension of the emission surface, and D is the shorter dimension of the emission surface.
A computer-implemented method for determining minor variants in genetic material, the method comprising: receiving electropherogram sequence data from a test sample , identifying any small peaks in the sample-signal space appearing under a main peak in the sample-signal space as non-primary peaks in the electropherogram , characterizing identified non-primary peaks using at least one signal feature , wherein the signal feature is peak amplitude, peak width, peak location, area under the peak, peak sharpness, peak symmetry/asymmetry, goodness of fit with respect to a mono-modal model, height of the minima flanking a peak relative to its amplitude, or any combinations thereof analyzing the at least one signal feature across identified non-primary peaks to identify variant candidates , evaluating at least one peak characteristic of each of the identified variant candidates , and classifying variant candidates as bona fide variants based on the evaluation of peak characteristics . characterizing identified non-primary peaks using at least one signal feature , wherein the signal feature is peak amplitude, peak width, peak location, area under the peak, peak sharpness, peak symmetry/asymmetry, goodness of fit with respect to a mono-modal model, height of the minima flanking a peak relative to its amplitude, or any combinations thereof analyzing the at least one signal feature across identified non-primary peaks to identify variant candidates , evaluating at least one peak characteristic of each of the identified variant candidates , and classifying variant candidates as bona fide variants based on the evaluation of peak characteristics . evaluating at least one peak characteristic of each of the identified variant candidates , and classifying variant candidates as bona fide variants based on the evaluation of peak characteristics .
Self-service terminal comprising a card-reading device into which a card , on which data to be read is stored, can be inserted, wherein the self-service terminal has at least one sensor system and an evaluation apparatus connected thereto, wherein the at least one sensor system is arranged in the card-reading device and comprises at least one linearly extending sensor arrangement , wherein the evaluation apparatus , by means of the at least one sensor arrangement , checks at least one spatial dimension (1, b) of the card on the basis of geometric dimensions of the length and/or width (b) of the card in comparison with standard values for standardized cards, characterized in that a light barrier is arranged at a retract region for withheld cards in the self-service terminal, the light barrier being connected to the at least one evaluation apparatus and having one or more optoelectrical sensor elements in order to detect manipulations at the retract region .
A method of wireless communication of a user equipment, UE, comprising: receiving , from a base station, at least one synchronization signal block, SSB; determining a reference signal received power, RSRP, of the at least one SSB; transmitting, to the base station if the RSRP of all of the at least one SSB is less than a threshold, an indication of a reduced UE capability of the UE during a random access channel, RACH, procedure, the threshold being configured by the base station; and transmitting , to the base station if the RSRP of one of the at least one SSB is greater than or equal to the threshold, the indication of the reduced UE capability of the UE after entering into a radio resource control, RRC, connected state upon completion of the RACH procedure. receiving , from a base station, at least one synchronization signal block, SSB; determining a reference signal received power, RSRP, of the at least one SSB; transmitting, to the base station if the RSRP of all of the at least one SSB is less than a threshold, an indication of a reduced UE capability of the UE during a random access channel, RACH, procedure, the threshold being configured by the base station; and transmitting , to the base station if the RSRP of one of the at least one SSB is greater than or equal to the threshold, the indication of the reduced UE capability of the UE after entering into a radio resource control, RRC, connected state upon completion of the RACH procedure.
A Carbonated Soft Drink (CSD) container, wherein the container comprises an internal and/or an external gas barrier coating and characterised in that the Carbonated Soft Drink (CSD) container has the following properties: a) a difference between area distribution (%) and weight distribution (%) in the container base section, the container shoulder section, or both the container base and the container shoulder sections is less than 8%; b) a sectional area to weight ratio ( A / W, cm 2 /g) for any given section is within 25% of the overall surface area to weight (excluding finish) ratio; and c) a weight distribution efficiency (WDE) greater than or about 95% wherein the WDE is defined according to the formula: WDE = A W ∑ i = 1 i = n a i w i × Ai wherein; a i is the area of the i th container section; w i is the weight of the i th container section; A is the total area of the container; A i is the area fraction for section i W is the total weight of the container; and i is one of n total sections into which the container is divided, each section equally spanning i / n of the total container height measured from the bottom of the base to the bottom of the support ring. a) a difference between area distribution (%) and weight distribution (%) in the container base section, the container shoulder section, or both the container base and the container shoulder sections is less than 8%; b) a sectional area to weight ratio ( A / W, cm 2 /g) for any given section is within 25% of the overall surface area to weight (excluding finish) ratio; and c) a weight distribution efficiency (WDE) greater than or about 95% wherein the WDE is defined according to the formula: WDE = A W ∑ i = 1 i = n a i w i × Ai wherein; a i is the area of the i th container section; w i is the weight of the i th container section; A is the total area of the container; A i is the area fraction for section i W is the total weight of the container; and i is one of n total sections into which the container is divided, each section equally spanning i / n of the total container height measured from the bottom of the base to the bottom of the support ring. a i is the area of the i th container section; w i is the weight of the i th container section; A is the total area of the container; A i is the area fraction for section i W is the total weight of the container; and i is one of n total sections into which the container is divided, each section equally spanning i / n of the total container height measured from the bottom of the base to the bottom of the support ring.
A method of bonding a first web of material to a second web of material , the method comprising the steps of: (a) providing a first web of material and a second web of material moving in a machine direction ; (b) providing a first energy application device extending transverse in the cross-machine direction , the first energy application device including a primary bonding pattern and a secondary bonding pattern ; (c) providing a second energy application device , wherein the first energy application device comprises an anvil and the secondary energy application device comprises a rotary ultrasonic horn or the first energy application device comprises a rotary ultrasonic horn and the second energy application device comprises an anvil ; and (d) moving the second energy application device in the cross-machine direction , and thereby extending the second energy application device over the first energy application device and operating the first and second energy application devices in combination and thereby applying energy to the first web of material and the second web of material at a line moving progressively across the first web of material and the second web of material to form a composite material , wherein the primary bonding pattern provides non-continuous contact between the first energy application device and the second energy application device in the cross-machine direction and characterised in that the secondary bonding pattern provides continuous contact between the first energy application device and the second energy application device in the cross-machine direction . (a) providing a first web of material and a second web of material moving in a machine direction ; (b) providing a first energy application device extending transverse in the cross-machine direction , the first energy application device including a primary bonding pattern and a secondary bonding pattern ; (c) providing a second energy application device , wherein the first energy application device comprises an anvil and the secondary energy application device comprises a rotary ultrasonic horn or the first energy application device comprises a rotary ultrasonic horn and the second energy application device comprises an anvil ; and (d) moving the second energy application device in the cross-machine direction , and thereby extending the second energy application device over the first energy application device and operating the first and second energy application devices in combination and thereby applying energy to the first web of material and the second web of material at a line moving progressively across the first web of material and the second web of material to form a composite material , wherein the primary bonding pattern provides non-continuous contact between the first energy application device and the second energy application device in the cross-machine direction and characterised in that the secondary bonding pattern provides continuous contact between the first energy application device and the second energy application device in the cross-machine direction .