mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving , at a long term evolution wireless local area networks radio level integration with internet protocol security tunnel, LWIP, controller in a first communication network , first instrumentation for a user equipment, UE, for the first communication network; receiving , at the LWIP controller and from a second communication network , second instrumentation for the UE for the second communication network; determining , using the LWIP controller and the first instrumentation, a first routing metric associated with the first communication network , wherein the first routing metric identifies a capability of the first communication network to handle an Internet Protocol (IP) flow for the UE ; determining , using the LWIP controller and the second instrumentation, a second routing metric associated with the second communication network , wherein the second routing metric identifies a capability of the second communication network to handle the IP flow for the UE and wherein the second routing metric is different from the first routing metric; and routing the IP flow for the UE using the first communication network or the second communication network based, at least in part, on the first routing metric and the second routing metric, wherein first instrumentation and second instrumentation each refer to reports, measurements, calculations, or combinations thereof. receiving , at a long term evolution wireless local area networks radio level integration with internet protocol security tunnel, LWIP, controller in a first communication network , first instrumentation for a user equipment, UE, for the first communication network; receiving , at the LWIP controller and from a second communication network , second instrumentation for the UE for the second communication network; determining , using the LWIP controller and the first instrumentation, a first routing metric associated with the first communication network , wherein the first routing metric identifies a capability of the first communication network to handle an Internet Protocol (IP) flow for the UE ; determining , using the LWIP controller and the second instrumentation, a second routing metric associated with the second communication network , wherein the second routing metric identifies a capability of the second communication network to handle the IP flow for the UE and wherein the second routing metric is different from the first routing metric; and routing the IP flow for the UE using the first communication network or the second communication network based, at least in part, on the first routing metric and the second routing metric, wherein first instrumentation and second instrumentation each refer to reports, measurements, calculations, or combinations thereof.
A composition comprising a vitrified matrix gel having a first component and a second component, wherein the first component comprises collagen, and wherein the second component comprises cyclodextrin.
A process for making a coating comprising an interpenetrating polymer network, said process comprising the steps of: a) applying a colloidal suspension to a surface to produce a coated surface, wherein the colloidal suspension comprises colloidal particles suspended in an organic solvent, wherein the colloidal particles comprise an interpenetrating polymer network of a polyurethane and a polyacrylic, and; b) applying a particulate solid to the coated surface, wherein substantially the entire surface of the particulate solid is hydrophobic. a) applying a colloidal suspension to a surface to produce a coated surface, wherein the colloidal suspension comprises colloidal particles suspended in an organic solvent, wherein the colloidal particles comprise an interpenetrating polymer network of a polyurethane and a polyacrylic, and; b) applying a particulate solid to the coated surface, wherein substantially the entire surface of the particulate solid is hydrophobic.
A system comprising at least a street-lighting device; a camera system mounted at the street-lighting device; a recognition unit ; a transmission unit ; and a mobile display unit , wherein the camera system is configured for delivering image indications of parking space areas disposed within a parking space zone, and wherein the recognition unit is configured to - store the geographical coordinates of parking space areas located in the field of view of the camera system ; - associate a respective occupation status with the parking space areas in dependence on the image indications, said occupation status marking whether a respective parking space area is free or occupied; and - to provide the respective occupation status of at least the free parking space areas with the associated geographical coordinates to the transmission unit , wherein the transmission unit is configured to transmit the respective occupation status of at least the free parking space areas with the associated geographical coordinates to the mobile display unit ; wherein the recognition unit is configured to compensate movements of the camera system which are caused by movements of the street-lighting device relative to the parking space zone in the image indications delivered by the camera system by means of an image processing method such that the image indications are not falsified by the movements of the camera system ; and wherein a marking is applied to a carrier element of the street-lighting device in the field of view of the camera system . - store the geographical coordinates of parking space areas located in the field of view of the camera system ; - associate a respective occupation status with the parking space areas in dependence on the image indications, said occupation status marking whether a respective parking space area is free or occupied; and - to provide the respective occupation status of at least the free parking space areas with the associated geographical coordinates to the transmission unit ,
Shock absorber for an automotive vehicle , the shock absorber being made of foam and comprising a set of shock absorbing elements arranged so as to form at least one row, wherein the shock absorbing elements have a blade shape configured to be oriented vertically when the shock absorber is mounted on an automotive vehicle , characterized in that the shock absorbing elements follow one another in the row with a center distance of between 30 and 120 mm and in that the shock absorbing elements each have a length between 50 and 120 mm and a thickness at mid-height between 12 and 40 mm, the length and the thickness at mid-height being such that a ratio between the length and the thickness at mid-height is comprised between 2 and 5.
A sensor probe for coupling between a counter module electronic volume corrector, EVC, and a gas meter body for sensing rotation of a counter drive shaft of the gas meter body, the probe comprising: a housing having an outer profile; a first end bearing a coupling member for operable connection to the EVC ; and a second end insertable into an aperture on the gas meter body ; characterized in that the outer profile provides a complementary shape and size for friction fitting the probe within the aperture; and wherein the outer profile is provided by an adapter sleeve . a housing having an outer profile; a first end bearing a coupling member for operable connection to the EVC ; and a second end insertable into an aperture on the gas meter body ; characterized in that the outer profile provides a complementary shape and size for friction fitting the probe within the aperture; and wherein the outer profile is provided by an adapter sleeve .
Method to create a video snapshot from a video transmission received by a receiver (RD), said receiver (RD) being connected with a mobile device (MD) and having a screen output, said method comprising the steps of: - receiving a video transmission by the receiver (RD) to send to the screen output, - converting, by the receiver, the video transmission into a lower-bandwidth video transmission, - sending, by the receiver (RD), the lower-bandwidth video transmission to the mobile device (MD), - buffering by the receiver (RD) the video transmission in a video buffer (BF), said buffer (BF) containing the video transmission already sent to the screen output during a predefined time, - receiving, by the receiver (RD), from the mobile device, a command to execute a video snapshot, - when the command is received by the receiver (RD), producing, from the video transmission stored in the buffer (BF), a downsampled video extract, - sending by the receiver (RD) the downsampled video extract to the mobile device (MD), - selecting, by the mobile device (MD), a starting and an ending point of the downsampled video extract, - producing the video snapshot by the receiver (RD) from the buffer (BF) using the starting and ending point received from the mobile device (MD), and - sending the video snapshot to the mobile device (MD). - receiving a video transmission by the receiver (RD) to send to the screen output, - converting, by the receiver, the video transmission into a lower-bandwidth video transmission, - sending, by the receiver (RD), the lower-bandwidth video transmission to the mobile device (MD), - buffering by the receiver (RD) the video transmission in a video buffer (BF), said buffer (BF) containing the video transmission already sent to the screen output during a predefined time, - receiving, by the receiver (RD), from the mobile device, a command to execute a video snapshot, - when the command is received by the receiver (RD), producing, from the video transmission stored in the buffer (BF), a downsampled video extract, - sending by the receiver (RD) the downsampled video extract to the mobile device (MD), - selecting, by the mobile device (MD), a starting and an ending point of the downsampled video extract, - producing the video snapshot by the receiver (RD) from the buffer (BF) using the starting and ending point received from the mobile device (MD), and - sending the video snapshot to the mobile device (MD).
A method for the treatment of milk for the production of cheesemaking milk having a reduced content of germs and bacteria, wherein the supplied milk (M) is subjected to at least a first microfiltration (MF-I), which results in a separation into at least a first retentate (R-I) containing germs and bacteria and into at least a first permeate (P-I) having a reduced content of germs and bacteria, wherein the at least first retentate (R-I) is subjected to a bacterial content controlling treatment (BSB), wherein this is a thermal treatment by heating the milk to above 100°C, and wherein a mixture of the at least first retentate (R-I) with the at least first permeate (P-I) or the last permeate resulting from the last microfiltration follows the bacterial content controlling treatment (BSB) of the at least first retentate (R-I), characterized in that • the supplied milk (M) is subdivided into a first milk portion (M1) and a second milk portion (M2), • the first milk portion (M1) is subjected to at least the first microfiltration (MF-I), • the second milk portion (M2) having the at least first retentate (R-I) from the at least first microfiltration (MF-I) is subjected to the joint bacterial content controlling treatment (BSB), • the mixture treated this way and consisting of first components (K1), which consist of a non-filtered treated second milk portion (M2*) and a treated at least first retentate (R-I*), is combined with the at least first permeate (P-I) or the last permeate resulting from the last microfiltration, in order to thus obtain standardized cheesemaking milk (SKM), and • the division ratio between the first milk portion (M1) and the second milk portion (M2) is variable and is predefined by the intended purpose of the cheesemaking milk. • the supplied milk (M) is subdivided into a first milk portion (M1) and a second milk portion (M2), • the first milk portion (M1) is subjected to at least the first microfiltration (MF-I), • the second milk portion (M2) having the at least first retentate (R-I) from the at least first microfiltration (MF-I) is subjected to the joint bacterial content controlling treatment (BSB), • the mixture treated this way and consisting of first components (K1), which consist of a non-filtered treated second milk portion (M2*) and a treated at least first retentate (R-I*), is combined with the at least first permeate (P-I) or the last permeate resulting from the last microfiltration, in order to thus obtain standardized cheesemaking milk (SKM), and • the division ratio between the first milk portion (M1) and the second milk portion (M2) is variable and is predefined by the intended purpose of the cheesemaking milk.
A security document having an at least semi-transparent or translucent window region of lower optical density than an adjacent non-window region of the security document, the window region being defined by at least one opacifying layer ) of the security document which is present in the non-window region and not in the window region of the document, and an optically variable security device disposed at least partially in the window region , comprising a first ink layer and a second ink layer which at least partially overlap one another in the window region, wherein the first ink layer comprises a non-iridescent, semi-transparent ink composition with a visible colour which does not vary with viewing angle, the first ink layer having a different composition from the at least one opacifying layer of the security document, and the second ink layer comprises an iridescent, semi-transparent ink composition, the appearance of which varies according to the viewing angle; and wherein: the optically variable security device is located partially in the window region and partially in the non-window region ; or the window region includes a half window portion comprising a region of transparent substrate with an opacifying layer on only one of its surfaces, and at least a region of the optically variable security device is located in the half window portion . the optically variable security device is located partially in the window region and partially in the non-window region ; or the window region includes a half window portion comprising a region of transparent substrate with an opacifying layer on only one of its surfaces, and at least a region of the optically variable security device is located in the half window portion .
A method of diagnosing melanoma in a patient comprising: a) measuring in a sample which has been obtained from a patient suspected of suffering from melanoma, the normalized expression of the genes PRAME, S100A9, S100A7, S100A8, S100A12, S100A10, S100A14, PI3, CCL5, CD38, CXCL10, CXCL9, IRF1, LCP2, PTPN22, and PTPRC; and b) calculating a score based on the sum of: (i) 0.9-1.5 multiplied by the normalized expression of PRAME; (ii) 0.40-1 multiplied by the average of the normalized expression of CCL5, CD38, CXCL10, CXCL9, IRF1, LCP2, PTPN22, and PTPRC; (iii) 0.9-1.5 multiplied by the average of the normalized expression of S 100A9, S100A7, S100A8, S100A12, S100A10, S100A14, and PI3; and (iv) a predefined adjustment factor arranged to adjust the score of a particular cut off value such that the cut off value is centred at zero; a score greater than zero is indicative of melanoma. a) measuring in a sample which has been obtained from a patient suspected of suffering from melanoma, the normalized expression of the genes PRAME, S100A9, S100A7, S100A8, S100A12, S100A10, S100A14, PI3, CCL5, CD38, CXCL10, CXCL9, IRF1, LCP2, PTPN22, and PTPRC; and b) calculating a score based on the sum of: (i) 0.9-1.5 multiplied by the normalized expression of PRAME; (ii) 0.40-1 multiplied by the average of the normalized expression of CCL5, CD38, CXCL10, CXCL9, IRF1, LCP2, PTPN22, and PTPRC; (iii) 0.9-1.5 multiplied by the average of the normalized expression of S 100A9, S100A7, S100A8, S100A12, S100A10, S100A14, and PI3; and (iv) a predefined adjustment factor arranged to adjust the score of a particular cut off value such that the cut off value is centred at zero; a score greater than zero is indicative of melanoma. (i) 0.9-1.5 multiplied by the normalized expression of PRAME; (ii) 0.40-1 multiplied by the average of the normalized expression of CCL5, CD38, CXCL10, CXCL9, IRF1, LCP2, PTPN22, and PTPRC; (iii) 0.9-1.5 multiplied by the average of the normalized expression of S 100A9, S100A7, S100A8, S100A12, S100A10, S100A14, and PI3; and (iv) a predefined adjustment factor arranged to adjust the score of a particular cut off value such that the cut off value is centred at zero;
An apparatus for use in a user equipment UE , operable to perform hybrid automatic repeat request HARQ, acknowledgement ACK,-negative acknowledgement NACK, transmissions, the apparatus comprising one or more processors and memory configured to: generate, at the UE , a UE capability information message for transmission to an eNodeB, the UE capability information message indicating that the UE supports a self-contained HARQ ACK-NACK transmission scheme that uses a self-contained subframe structure; signal a transceiver at the apparatus to send a request to use the HARQ ACK-NACK transmission scheme; and process, at the UE , an indication received from the eNodeB in response to the request, wherein the indication configures the UE to use the self-contained HARQ ACK-NACK transmission scheme to perform HARQ ACK-NACK transmissions; characterized in that the self-contained HARQ ACK-NACK transmission scheme that uses the self-contained subframe structure enables the UE to perform the following in one subframe: a demodulation and decoding for an advanced physical downlink control channel, xPDCCH, and an advanced physical downlink shared channel, xPDSCH; and a transmission of HARQ ACK-NACK feedback for the xPDSCH via an advanced physical uplink control channel, xPUCCH. generate, at the UE , a UE capability information message for transmission to an eNodeB, the UE capability information message indicating that the UE supports a self-contained HARQ ACK-NACK transmission scheme that uses a self-contained subframe structure; signal a transceiver at the apparatus to send a request to use the HARQ ACK-NACK transmission scheme; and process, at the UE , an indication received from the eNodeB in response to the request, wherein the indication configures the UE to use the self-contained HARQ ACK-NACK transmission scheme to perform HARQ ACK-NACK transmissions; characterized in that the self-contained HARQ ACK-NACK transmission scheme that uses the self-contained subframe structure enables the UE to perform the following in one subframe: a demodulation and decoding for an advanced physical downlink control channel, xPDCCH, and an advanced physical downlink shared channel, xPDSCH; and a transmission of HARQ ACK-NACK feedback for the xPDSCH via an advanced physical uplink control channel, xPUCCH. a demodulation and decoding for an advanced physical downlink control channel, xPDCCH, and an advanced physical downlink shared channel, xPDSCH; and a transmission of HARQ ACK-NACK feedback for the xPDSCH via an advanced physical uplink control channel, xPUCCH.
A clutch engaging arrangement for a clutch of a transmission arrangement; the clutch engaging arrangement comprising: - an engaging member configured to be movable between a first disengaged position and an engaged position, in which engaged position the engaging member is arranged to position the clutch in an engaged state; and - a spring-loaded connecting rod comprising a connecting portion arranged in abutment with a portion of the engaging member when the engaging member assumes the engaged position for exposing the engaging member to a return force in a direction towards the first disengaged position, wherein the connecting portion of the spring-loaded connecting rod is arranged at a distance from the engaging member, in a direction towards the engaged position, when the engaging member assumes the first disengaged position. - an engaging member configured to be movable between a first disengaged position and an engaged position, in which engaged position the engaging member is arranged to position the clutch in an engaged state; and - a spring-loaded connecting rod comprising a connecting portion arranged in abutment with a portion of the engaging member when the engaging member assumes the engaged position for exposing the engaging member to a return force in a direction towards the first disengaged position, wherein the connecting portion of the spring-loaded connecting rod is arranged at a distance from the engaging member, in a direction towards the engaged position, when the engaging member assumes the first disengaged position.
Play crane comprising a loop supporting frame (116,130;200,202,203,204,205), a flexible closed loop (112;201) supported in a vertical orientation around the loop supporting frame thereby forming two opposing sides of the flexible closed loop and a lifting element connected to the flexible closed loop whereby the lifting element can be moved up or down by displacing the flexible closed loop around the loop supporting frame, characterized a. in that the play crane further comprises a barrier element arranged inside the flexible closed loop between said two sides of the flexible closed loop at any location where the maximum possible displacement of a portion on the flexible closed loop towards an opposing side of the flexible closed loop is greater than the minimum distance between the two sides of the flexible closed loop at the location of said portion; or b. in that the loop supporting frame and the total length of the flexible closed loop are arranged such that the maximum possible displacement of any portion of the flexible closed loop towards an opposing side of the flexible closed loop is less than the minimum distance between the two sides of the flexible closed loop at the location of the portion. a. in that the play crane further comprises a barrier element arranged inside the flexible closed loop between said two sides of the flexible closed loop at any location where the maximum possible displacement of a portion on the flexible closed loop towards an opposing side of the flexible closed loop is greater than the minimum distance between the two sides of the flexible closed loop at the location of said portion; or b. in that the loop supporting frame and the total length of the flexible closed loop are arranged such that the maximum possible displacement of any portion of the flexible closed loop towards an opposing side of the flexible closed loop is less than the minimum distance between the two sides of the flexible closed loop at the location of the portion.