mhurhangee/patent-ind-claim-en huggingface dataset:
A battery pack comprising: a pack tray ; a first x bar provided on the pack tray ; a plurality of battery modules provided on the pack tray ; a plurality of lateral plates for covering a lateral side of the battery module ; and a second x bar provided on the first x bar and disposed in parallel to the same, wherein the plurality of the battery modules are disposed in two rows in an y direction on the pack tray , wherein the first x bar and the second x bar are provided between the two rows, wherein the first x bar and the second x bar overlap each other in a z direction and have a bar-shape lengthily extending in the y direction, wherein the first x bar has a "┴" shape and the second x bar has a " " shape, wherein the first x bar and the second x bar are combined by a plurality of fastening members , and wherein the lateral plate forms a protrusions and depressions structure with the first x bar and the second x bar are combined with each other, and wherein a ring-shaped protrusion is formed on at least one of respective edges of an end of the lateral plate so as to be combined to respective sides of the first x bar and respective sides of the second x bar . a pack tray ; a first x bar provided on the pack tray ; a plurality of battery modules provided on the pack tray ; a plurality of lateral plates for covering a lateral side of the battery module ; and a second x bar provided on the first x bar and disposed in parallel to the same, wherein the plurality of the battery modules are disposed in two rows in an y direction on the pack tray , wherein the first x bar and the second x bar are provided between the two rows, wherein the first x bar and the second x bar overlap each other in a z direction and have a bar-shape lengthily extending in the y direction, wherein the first x bar has a "┴" shape and the second x bar has a " " shape, wherein the first x bar and the second x bar are combined by a plurality of fastening members , and wherein the lateral plate forms a protrusions and depressions structure with the first x bar and the second x bar are combined with each other, and wherein a ring-shaped protrusion is formed on at least one of respective edges of an end of the lateral plate so as to be combined to respective sides of the first x bar and respective sides of the second x bar .
A building having at least one room to be temperature-controlled, said room having multiple side walls , a room ceiling and a floor , there being provided in the room to be temperature-controlled a system of at least two mutually spaced radiant ceiling panels for controlling the temperature of a demand zone within the room to be temperature-controlled, each radiant ceiling panel having a pipework assembly through which a heat transfer medium flows and which has multiple pipes through which the heat transfer medium flows, characterised by further having at least one radiant surface which is in thermally conductive contact with the pipework assembly and faces towards the room to be temperature-controlled when in an installed position, wherein at least a first of the radiant ceiling panels including the radiant surface thereof is inclined towards a second radiant ceiling panel such that the thermal radiation is directed away from the side walls towards the demand zone , wherein, of multiple radiant ceiling panels, in each case the radiant ceiling panel adjacent to a side wall of the room to be temperature-controlled has a radiant surface inclined towards the centre of the room to be temperature-controlled, and at least the radiant surface of the first radiant ceiling panel is delimited at at least one of its side edges by a convection guide skirt which is arranged angled to the radiant surface , and wherein the radiant surface , inclined towards the second radiant ceiling panel , of the first radiant ceiling panel is arranged closer to one of the side walls than the second radiant ceiling panel .
A method of classifying traffic data in a network, the method comprising: at a Network Data Analytics Function, NWDAF (NWDAF), receiving information relating to traffic data with a known classification from one or more first network functions ; and developing, at the NWDAF, a model for classifying future traffic data based on the information relating to the traffic data with a known classification ; at a second network function, receiving a representation of the developed model from the NWDAF and storing, at the second network function, the representation of the developed model ; at a third network function, receiving the representation of the developed model from the second network function ; and installing the representation of the developed model at a fourth network function ; and at the fourth network function, classifying traffic data using the developed model . at a Network Data Analytics Function, NWDAF (NWDAF), receiving information relating to traffic data with a known classification from one or more first network functions ; and developing, at the NWDAF, a model for classifying future traffic data based on the information relating to the traffic data with a known classification ; at a second network function, receiving a representation of the developed model from the NWDAF and storing, at the second network function, the representation of the developed model ; at a third network function, receiving the representation of the developed model from the second network function ; and installing the representation of the developed model at a fourth network function ; and at the fourth network function, classifying traffic data using the developed model .
A voltage conversion system comprising: a voltage converter including an inductor and a plurality of switches configured to control a current through the inductor and a bypass circuit , the bypass circuit including a first p-type field effect transistor , a second p-type field effect transistor , a first n-type field effect transistor , and a second n-type field effect transistor , the first and second n-type field effect transistors electrically connected in series between a first end and a second end of the inductor and the first and second p-type field effect transistors electrically connected in series between the first end and the second end of the inductor ; and a control circuit configured to selectively open or close the plurality of switches to control an inductor current through the inductor, the control circuit further configured to selectively activate the bypass circuit to reduce ringing of the inductor current. a voltage converter including an inductor and a plurality of switches configured to control a current through the inductor and a bypass circuit , the bypass circuit including a first p-type field effect transistor , a second p-type field effect transistor , a first n-type field effect transistor , and a second n-type field effect transistor , the first and second n-type field effect transistors electrically connected in series between a first end and a second end of the inductor and the first and second p-type field effect transistors electrically connected in series between the first end and the second end of the inductor ; and a control circuit configured to selectively open or close the plurality of switches to control an inductor current through the inductor, the control circuit further configured to selectively activate the bypass circuit to reduce ringing of the inductor current.
A catheter adapted to map a chamber of a heart comprising: a catheter body configured to form a plurality of non-overlapping loops; an electrode assembly embedded in the catheter body , wherein the electrode assembly comprises a plurality of electrodes (A1-D5) arranged along the catheter body , wherein the electrode assembly is configured to detect a wave front and generate an activation sequence to determine a direction of an activation source; and characterised in that the plurality of non-overlapping loops comprises three or more loops; and a distance between consecutive electrodes on a loop of the plurality of non-overlapping loops is greater than a distance between consecutive electrodes on a next inner loop of the plurality of non-overlapping loops such that the plurality of electrodes forms a plurality of rows (A-D), wherein each of the plurality of rows (A-D) is formed by electrodes located on each of the plurality of non-overlapping loops, and wherein each of the plurality of rows (A-D) is configured with a respective plurality of electrodes that are substantially directly aligned. a catheter body configured to form a plurality of non-overlapping loops; an electrode assembly embedded in the catheter body , wherein the electrode assembly comprises a plurality of electrodes (A1-D5) arranged along the catheter body , wherein the electrode assembly is configured to detect a wave front and generate an activation sequence to determine a direction of an activation source; and characterised in that the plurality of non-overlapping loops comprises three or more loops; and a distance between consecutive electrodes on a loop of the plurality of non-overlapping loops is greater than a distance between consecutive electrodes on a next inner loop of the plurality of non-overlapping loops such that the plurality of electrodes forms a plurality of rows (A-D), wherein each of the plurality of rows (A-D) is formed by electrodes located on each of the plurality of non-overlapping loops, and wherein each of the plurality of rows (A-D) is configured with a respective plurality of electrodes that are substantially directly aligned.
A method of wireless communication for a user equipment, UE , comprising: receiving , from a base station , first information associated with one or more resources allocated for at least one physical random access channel, PRACH, transmission, the one or more resources being allocated in an unlicensed frequency spectrum, and the one or more resources being allocated based on a multi-tone PRACH bandwidth; receiving , from the base station , second information associated with a frequency hopping configuration, the frequency hopping configuration being associated with at least one of the one or more allocated resources or the multi-tone PRACH bandwidth and wherein the frequency hopping configuration includes a first set of symbol groups located in a first set of adjacent tones and a second set of symbol groups located in a second set of adjacent tones, the second set of adjacent tones being non-adjacent to the first set of adjacent tone; receiving , from the base station , third information indicating a power spectral density, PSD, limit that applies to one or more physical channels; and transmitting , to the base station , the at least one PRACH transmission based on the PSD limit and using the one or more allocated resources within the multi-tone PRACH bandwidth and the frequency hopping configuration. receiving , from a base station , first information associated with one or more resources allocated for at least one physical random access channel, PRACH, transmission, the one or more resources being allocated in an unlicensed frequency spectrum, and the one or more resources being allocated based on a multi-tone PRACH bandwidth; receiving , from the base station , second information associated with a frequency hopping configuration, the frequency hopping configuration being associated with at least one of the one or more allocated resources or the multi-tone PRACH bandwidth and wherein the frequency hopping configuration includes a first set of symbol groups located in a first set of adjacent tones and a second set of symbol groups located in a second set of adjacent tones, the second set of adjacent tones being non-adjacent to the first set of adjacent tone; receiving , from the base station , third information indicating a power spectral density, PSD, limit that applies to one or more physical channels; and transmitting , to the base station , the at least one PRACH transmission based on the PSD limit and using the one or more allocated resources within the multi-tone PRACH bandwidth and the frequency hopping configuration.
A light source system, comprising: an excitation light source for emitting an excitation light during at least first time intervals and second time intervals; a compensation light source for emitting a compensation light during at least third time intervals, the compensation light emitted by the compensation light source being a laser light including at least one color; a rotating color wheel , including at least a first region and a second region , wherein during the first time intervals and the second time intervals, the first region is illuminated by the excitation light and converts it to a light sequence including at least two colors, and wherein during the third time intervals, the second region transmits the compensation light; wherein the light including the at least two colors includes at least a broad band fluorescent light, and wherein the at least one color laser light compensates for the fluorescent light or lights divided from the fluorescent light; wherein a spectral range of the at least one color laser light overlaps partly with a spectral range of the fluorescent light, and wherein the spectral range of the fluorescent light is 480 - 700 nm; characterized in that the compensation light source includes a first compensation light source and a second compensation light source , the first compensation light source emitting a first compensation light, and the second compensation light source emitting a second compensation light. an excitation light source for emitting an excitation light during at least first time intervals and second time intervals; a compensation light source for emitting a compensation light during at least third time intervals, the compensation light emitted by the compensation light source being a laser light including at least one color; a rotating color wheel , including at least a first region and a second region , wherein during the first time intervals and the second time intervals, the first region is illuminated by the excitation light and converts it to a light sequence including at least two colors, and wherein during the third time intervals, the second region transmits the compensation light; wherein the light including the at least two colors includes at least a broad band fluorescent light, and wherein the at least one color laser light compensates for the fluorescent light or lights divided from the fluorescent light;
Method comprising the following steps for use in a system comprising a device with a control unit and contactless communication interface , an external unit , a network , an application server , and a testing instance : - Receiving (S1) data in the communication interface; - Transparently sending (S2) of the received data to the external unit by the communication interface; wherein the device provides a signature for at least a portion of the data; - Creating (S4) the signature for the data in the communication interface to recognize copies of applications, wherein the data is signed by means of a secret key SK of the communication interface by the communication interface and the signature is verified by means of a public key PK of the communication interface by the testing instance, wherein the secret key SK forms with the public key PK a key pair of an asymmetric cryptographic algorithm; and - the created signature and the data are sent separate from each other from the communication interface to the external unit, where the created signature is encrypted after signing and the sent data is encrypted before signing with a key of the testing instance, which verifies the origin of the data by means of the signature. - Receiving (S1) data in the communication interface; - Transparently sending (S2) of the received data to the external unit by the communication interface; wherein the device provides a signature for at least a portion of the data; - Creating (S4) the signature for the data in the communication interface to recognize copies of applications, wherein the data is signed by means of a secret key SK of the communication interface by the communication interface and the signature is verified by means of a public key PK of the communication interface by the testing instance, wherein the secret key SK forms with the public key PK a key pair of an asymmetric cryptographic algorithm; and wherein the data is signed by means of a secret key SK of the communication interface by the communication interface and the signature is verified by means of a public key PK of the communication interface by the testing instance, wherein the secret key SK forms with the public key PK a key pair of an asymmetric cryptographic algorithm; and - the created signature and the data are sent separate from each other from the communication interface to the external unit, where the created signature is encrypted after signing and the sent data is encrypted before signing with a key of the testing instance, which verifies the origin of the data by means of the signature.
A biochip comprising: a bio-layer having formed therein a plurality of reaction regions configured so as to allow a biochemical reaction between a reference sample and a target sample to occur therein, and a plurality of side emitting-type light-emitting devices arranged such that light emitted from sides of the side emitting-type light-emitting devices is incident to the plurality of reaction regions; and an image sensor layer formed under the bio-layer and having formed therein a plurality of photodetectors configured to detect fluorescent light generated by the biochemical reaction in the reaction regions, wherein each side emitting-type light-emitting device comprises: a light-emitting region , a first reflective layer formed under the light-emitting region ; and a second reflective layer formed over the light-emitting region , wherein each of the plurality of reaction regions receives light transmitted from two light-emitting devices of the plurality of light-emitting devices through respective sides of the two light-emitting devices. a bio-layer having formed therein a plurality of reaction regions configured so as to allow a biochemical reaction between a reference sample and a target sample to occur therein, and a plurality of side emitting-type light-emitting devices arranged such that light emitted from sides of the side emitting-type light-emitting devices is incident to the plurality of reaction regions; and an image sensor layer formed under the bio-layer and having formed therein a plurality of photodetectors configured to detect fluorescent light generated by the biochemical reaction in the reaction regions, wherein each side emitting-type light-emitting device comprises: a light-emitting region , a first reflective layer formed under the light-emitting region ; and a second reflective layer formed over the light-emitting region , wherein each of the plurality of reaction regions receives light transmitted from two light-emitting devices of the plurality of light-emitting devices through respective sides of the two light-emitting devices.
A rotating power connector for an electric welding torch comprising: an outer housing having a longitudinal axis ; a connector pin arranged within the outer housing and extending from a first end of the outer housing, wherein the connector pin is configured to be inserted into the welding torch to connect the rotating power connector to the welding torch; a stud arranged within the outer housing and extending from a second end of the outer housing, wherein the stud is connectable to a unicable ; and one or more electrical contact rings arranged within the outer housing and encircling the connector pin or the stud , the one or more electrical contact rings including one or more contact extensions biased toward an external surface of the connector pin or the stud to provide electrical contact between the one or more contact extensions and the external surface during rotation of the rotating power connector relative to the unicable; an inner housing arranged within the outer housing and generally encasing the one or more contact rings, wherein the inner housing contacts the one or more contact rings and the stud or connector pin to provide a current pathway for electric current from the stud through the one or more contact rings and the inner housing and into the connector pin. an outer housing having a longitudinal axis ; a connector pin arranged within the outer housing and extending from a first end of the outer housing, wherein the connector pin is configured to be inserted into the welding torch to connect the rotating power connector to the welding torch; a stud arranged within the outer housing and extending from a second end of the outer housing, wherein the stud is connectable to a unicable ; and one or more electrical contact rings arranged within the outer housing and encircling the connector pin or the stud , the one or more electrical contact rings including one or more contact extensions biased toward an external surface of the connector pin or the stud to provide electrical contact between the one or more contact extensions and the external surface during rotation of the rotating power connector relative to the unicable; an inner housing arranged within the outer housing and generally encasing the one or more contact rings, wherein the inner housing contacts the one or more contact rings and the stud or connector pin to provide a current pathway for electric current from the stud through the one or more contact rings and the inner housing and into the connector pin.
A process for producing a protein concentrate from a starch containing grain or oil seed, the process comprising: (i) grinding the starch containing grain to produce a ground starch containing grain; (ii) slurrying the ground starch containing grain with water to prepare a slurry comprising starch and glucans; (iii) solubilizing starch and glucans comprising the slurry with enzymes to provide a solubilized slurry, wherein solubilizing starch and glucans with enzymes produces glucose; (iv) adding a fermentation organism to the solubilized slurry, wherein the fermentation organism is a member selected from the group consisting of Rhizopus oryzae, Rhizopus microsporus, and yeast; (v) fermenting the solubilized slurry comprising the fermentation organism until fermentation is complete, thereby producing a fermented slurry; (vi) separating the fermented slurry into solid and liquid fractions; (vii) recovering the solid and liquid fractions; (viii) drying the recovered solid fraction at a temperature below that which would denature or damage proteins; thereby producing a protein concentrate. (i) grinding the starch containing grain to produce a ground starch containing grain; (ii) slurrying the ground starch containing grain with water to prepare a slurry comprising starch and glucans; (iii) solubilizing starch and glucans comprising the slurry with enzymes to provide a solubilized slurry, wherein solubilizing starch and glucans with enzymes produces glucose; (iv) adding a fermentation organism to the solubilized slurry, wherein the fermentation organism is a member selected from the group consisting of Rhizopus oryzae, Rhizopus microsporus, and yeast; (v) fermenting the solubilized slurry comprising the fermentation organism until fermentation is complete, thereby producing a fermented slurry; (vi) separating the fermented slurry into solid and liquid fractions; (vii) recovering the solid and liquid fractions; (viii) drying the recovered solid fraction at a temperature below that which would denature or damage proteins;