mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a wound filler for use in negative pressure wound therapy, the method comprising: creating a three-dimensional model of a wound filler based on a three-dimensional scan or model of a wound space to be treated with negative pressure wound therapy; and fabricating a bespoke wound filler based on the created three-dimensional scan or model of the wound filler, wherein the bespoke wound filler comprises at least a first plurality of identical repeating cells configured to collapse in a manner determined by the three-dimensional scan or model to account for attributes of the wound and for a negative pressure wound therapy treatment modality and wherein each repeating cell comprises straight sections or walls joined together by hinged sections. creating a three-dimensional model of a wound filler based on a three-dimensional scan or model of a wound space to be treated with negative pressure wound therapy; and fabricating a bespoke wound filler based on the created three-dimensional scan or model of the wound filler, wherein the bespoke wound filler comprises at least a first plurality of identical repeating cells configured to collapse in a manner determined by the three-dimensional scan or model to account for attributes of the wound and for a negative pressure wound therapy treatment modality and wherein each repeating cell comprises straight sections or walls joined together by hinged sections.
A method for operating an image display device including a display panel and a plurality of backlight lamps, the method comprising: receiving a 3-dimensional, 3D, image; alternately aligning a left-eye image frame and a right-eye image frame of image frames of the 3D image; and displaying the aligned left-eye image frame and right-eye image frame alternately on the display panel, wherein, in the displaying step, both the aligned left-eye image frame and right-eye image frame are displayed on the display panel, characterized in that, in the displaying step, the backlight lamps are turned off during the display time of either all the aligned left-eye image frames or all the aligned right-eye image frames if a display switching signal for displaying the 3D image in 2 dimensions is input, and the backlight lamps are turned on in synchronization with any one of the aligned left-eye image frame and right-eye image frame if the display switching signal is input and the backlight lamps are turned off during the other of the aligned left-eye image frame and right-eye image frame. receiving a 3-dimensional, 3D, image; alternately aligning a left-eye image frame and a right-eye image frame of image frames of the 3D image; and displaying the aligned left-eye image frame and right-eye image frame alternately on the display panel, wherein, in the displaying step, both the aligned left-eye image frame and right-eye image frame are displayed on the display panel, characterized in that, in the displaying step, the backlight lamps are turned off during the display time of either all the aligned left-eye image frames or all the aligned right-eye image frames if a display switching signal for displaying the 3D image in 2 dimensions is input, and the backlight lamps are turned on in synchronization with any one of the aligned left-eye image frame and right-eye image frame if the display switching signal is input and the backlight lamps are turned off during the other of the aligned left-eye image frame and right-eye image frame.
An electric heating device for vehicles having a high voltage electric system, said device including flat PTC heating elements that are arranged with a slight distance between them, next to each other, between current rails (22, 24) which are arranged opposite each other, which heating elements are fed with supply current from a control electronics unit via the current rails (22, 24), and having metallic heating rib structures (16a, 16b, 16c, 16d, 16e, 16f) which are each coupled to one of the current rails (22, 24) via an electrically insulating but thermally conducting coupling layer, characterised in that the metallic heating rib structures (16a, 16b, 16c, 16d, 16e, 16f) are electrically connectable to a fixed reference potential, in that the control electronics unit is surrounded by a housing that has an electric shield that is connectable to the fixed reference potential, and in that the heating rib structures (16a, 16b, 16c, 16d, 16e, 16f) are electrically coupled to the metallic shield of the housing, and the ends of the current rails (22, 24) which protrude into a control block where they are connected to a pole of the supply voltage applied by the control electronics unit are insulated by insulating elements, and the opposed ends of the currents rails (22, 24) are electrically insulated by an insulating strip and are provided with a shield such as a metal strip that covers the insulating strip on the outside, the shield being connected on its narrow sides to the heating rib structures (16a, 16b, 16c, 16d, 16e, 16f) in an electrically conducting manner, and lateral insulating strips (35, 37) which cover the narrow faces of the current rails (22, 24) and the PTC heating elements are covered on the outside by metal strips (42, 44) which are electrically connected to the heating rib structures (16a, 16b, 16c, 16d, 16e, 16f).
Polypropylene homopolymer having a content of isotactic pentad fraction of from 93.0 to 99.6 % a melt flow rate MFR 2 measured under a load of 2.16 kg at 230 °C according to ISO 1133 from 0.4 to 10.0 g/10 min, an aluminium content of more than 0.0 ppm and a titanium content of more than 0.0 ppm as measured according to the method provided in the description, and an ash content of more than 0.0 to 50.0 ppm, as measured according to the method provided in the description, all based on the total amount of the polypropylene composition, characterized in that the ash contains more than 0.0 up to at most 25.0 wt.-%, based on the total amount of the ash content, of the summed up amount of metals selected from elements in IUPAC groups 4 up to and including 13 of the periodic table, and in that the weight ratio of aluminium to titan within the ash is in the range of 0.8 to 2.0. a content of isotactic pentad fraction of from 93.0 to 99.6 % a melt flow rate MFR 2 measured under a load of 2.16 kg at 230 °C according to ISO 1133 from 0.4 to 10.0 g/10 min, an aluminium content of more than 0.0 ppm and a titanium content of more than 0.0 ppm as measured according to the method provided in the description, and an ash content of more than 0.0 to 50.0 ppm, as measured according to the method provided in the description, all based on the total amount of the polypropylene composition, characterized in that the ash contains more than 0.0 up to at most 25.0 wt.-%, based on the total amount of the ash content, of the summed up amount of metals selected from elements in IUPAC groups 4 up to and including 13 of the periodic table, and in that the weight ratio of aluminium to titan within the ash is in the range of 0.8 to 2.0.
A computer-implemented method for detecting confidential information, the method including: reading stored data; identifying strings within the stored data, where each string includes a sequence of consecutive bytes which all have values that are in a predetermined subset of possible values; for each of at least some of the strings, determining if the string includes bytes representing one or more format matches, wherein a format match includes a set of values that match a predetermined format associated with one of a plurality of types of confidential information; for each format match, testing the values that match the predetermined format with a set of rules associated with the type of confidential information to determine whether the format match is an invalid format match that includes one or more invalid values; calculating a weighting factor for each of the plurality of types of confidential information, wherein the weighting factor for each respective type of confidential information is based at least in part upon a function of a count of invalid format matches and a count of valid format matches for the respective type of confidential information; calculating a sub-score for each of the plurality of types of confidential information, wherein a sub-score for a respective type of confidential information is based at least in part on a function of the weighting factor for the respective type of confidential information; and flagging the stored data as likely to contain confidential information based on, at least in part on, a score that is a function of each of the calculated sub-scores. reading stored data; identifying strings within the stored data, where each string includes a sequence of consecutive bytes which all have values that are in a predetermined subset of possible values; for each of at least some of the strings, determining if the string includes bytes representing one or more format matches, wherein a format match includes a set of values that match a predetermined format associated with one of a plurality of types of confidential information; for each format match, testing the values that match the predetermined format with a set of rules associated with the type of confidential information to determine whether the format match is an invalid format match that includes one or more invalid values; calculating a weighting factor for each of the plurality of types of confidential information, wherein the weighting factor for each respective type of confidential information is based at least in part upon a function of a count of invalid format matches and a count of valid format matches for the respective type of confidential information; calculating a sub-score for each of the plurality of types of confidential information, wherein a sub-score for a respective type of confidential information is based at least in part on a function of the weighting factor for the respective type of confidential information; and flagging the stored data as likely to contain confidential information based on, at least in part on, a score that is a function of each of the calculated sub-scores.
A cell phone protective case having a battery and an electrical and data interconnectivity with a cell phone and an at least two component protective case (101, 102) with each component having one or more application platforms with an electrical and mechanical connection (161, 164) between each component of the at least two component protective case and a separate processor in the cell phone protective case with an interface to the cell phone to run applications on the cell phone and applications on the at least two component protective case which combination provides a multiple applications platform, MAP, with a universal charging and power connection between the cell phone protective case (169, 168) and the cell phone and wherein once the electrical and data interconnectivity of the at least two component case is assembled it has supplemental hardware capable of operating at least one standalone or independent function (199, 201, 203, 207, 209, 244, 264, 278) of the MAP without first being connected to the cell phone.
An implant (100,1800) for interfacing with a bone structure, characterised in that the implant comprises: a web structure comprising a space truss comprising two or more planar truss units having a plurality of struts joined at nodes, wherein the web structure extends into a central portion of the implant, wherein the web structure is configured to interface with the bone structure. a web structure comprising a space truss comprising two or more planar truss units having a plurality of struts joined at nodes, wherein the web structure extends into a central portion of the implant, wherein the web structure is configured to interface with the bone structure.
A package for dissipating heat power from an optical fiber component of a device, the package comprising: - a heat sink packaging receptacle for accommodating the optical fiber component, the heat sink packaging receptacle comprising: - a cavity for receiving a temperature sensitive portion of the optical fiber component; - a first end for accommodating an input end of the optical fiber component; and - a second end for accommodating an output end of the optical fiber component; and - a power-dissipative material for dissipating heat power, the power-dissipative material extending within said cavity and surrounding the temperature-sensitive portion of the optical fiber component, said power-dissipative material being in a solid or liquid form, the power-dissipative material comprising an optically transparent material having a refractive index conducive to total-internal reflection optical guidance of light within the optical fiber component. - a heat sink packaging receptacle for accommodating the optical fiber component, the heat sink packaging receptacle comprising: - a cavity for receiving a temperature sensitive portion of the optical fiber component; - a first end for accommodating an input end of the optical fiber component; and - a cavity for receiving a temperature sensitive portion of the optical fiber component; - a first end for accommodating an input end of the optical fiber component; and - a second end for accommodating an output end of the optical fiber component; and - a power-dissipative material for dissipating heat power, the power-dissipative material extending within said cavity and surrounding the temperature-sensitive portion of the optical fiber component, said power-dissipative material being in a solid or liquid form, the power-dissipative material comprising an optically transparent material having a refractive index conducive to total-internal reflection optical guidance of light within the optical fiber component.
Endoscopic device for self-propelled locomotion through a body cavity in a pre-established direction of displacement, comprising a tubular body made of an elastic material extending between two end portions, respectively front and rear end portions, comprising respective anchoring means pneumatically actuated and suitable for temporarily and alternately attaching said end portions to the wall of the body cavity in synchronism with corresponding axial extensions and contractions of said tubular body, said tubular body incorporating a reinforcement structure (6, 7) distributed along its length and substantially rigid in the radial direction and yielding in the axial direction, a wall of said tubular body being formed by superimposed inner layer and an outer layer, said reinforcement structure being arranged therebetween, characterized in that through openings (11, 12, 13) are through holes formed on said outer layer at said reinforcement structure for allowing air possibly entered between said inner layer and said outer layer from the inside of said tubular body to be discharged to the outside.
Lubricating oil composition comprising lubricating oil base oil, the lubricating oil base oil being selected from the group consisting of Group 1, Group II or Group III base oils, polyalphaolefins, Fischer-Tropsch derived base oils and mixtures thereof, in combination with: (a) one or more substituted phenyl-naphthylamines being present in a total amount in the range of from 0.01 to 3.0 wt. %, based on the total weight of the lubricating oil composition; (b) one or more thiophosphates; and (c) an additional base oil component being present in an amount in the range of from 0.01 to 10.0 wt.%, based on the total weight of the lubricating oil composition, the additional base oil component being bright stock oil with a kinematic viscosity at 100 °C in the range of from 20 to 40 mm 2 /s as determined according to ASTM D445. (a) one or more substituted phenyl-naphthylamines being present in a total amount in the range of from 0.01 to 3.0 wt. %, based on the total weight of the lubricating oil composition; (b) one or more thiophosphates; and (c) an additional base oil component being present in an amount in the range of from 0.01 to 10.0 wt.%, based on the total weight of the lubricating oil composition, the additional base oil component being bright stock oil with a kinematic viscosity at 100 °C in the range of from 20 to 40 mm 2 /s as determined according to ASTM D445.
A user communication device arranged to support grouping of user communication devices in a communication network, wherein the user communication device is configured to communicate with further user communication devices in the communication network via a device-to-device, D2D, communication and is additionally configured to communicate with the further user communication devices via a communication network device, wherein the user communication device is configured to execute the following when supporting the grouping of user communication devices in the communication network: - determining a neighbor user communication device set comprising the user communication device and neighbor user communication devices, which are arranged to communicate in the communication network and which are adjacent to the user communication device in the communication network; and - determining, by communicating with neighbor user communication devices of the neighbor user communication device set via the D2D communication, among user communication devices of the neighbor user communication device set a user communication device group (103_1) that the user communication device joins; wherein information on the user communication device group (103_1) is provided to the communication network device; wherein the user communication device is configured to determine, for a possible group of different possible groups among the user communication devices of the neighbor user communication device set, a corresponding estimated ratio of received signal energy of joining the possible group over a received signal energy of staying ungrouped and to decide, based on the corresponding estimated ratio, whether the user communication device will join the possible group. - determining a neighbor user communication device set comprising the user communication device and neighbor user communication devices, which are arranged to communicate in the communication network and which are adjacent to the user communication device in the communication network; and - determining, by communicating with neighbor user communication devices of the neighbor user communication device set via the D2D communication, among user communication devices of the neighbor user communication device set a user communication device group (103_1) that the user communication device joins; wherein information on the user communication device group (103_1) is provided to the communication network device; wherein the user communication device is configured to determine, for a possible group of different possible groups among the user communication devices of the neighbor user communication device set, a corresponding estimated ratio of received signal energy of joining the possible group over a received signal energy of staying ungrouped and to decide, based on the corresponding estimated ratio, whether the user communication device will join the possible group.
A hearing device comprising - a Behind-The-Ear unit, which comprises a power source, a microphone, an amplifier, and a receiver and which is configured to be mounted behind or on the ear of a user and - an air filled tube having a proximal end and a distal end, where the proximal end of the air filled tube is connected to the receiver of the Behind-The-Ear unit and where a flexible sealing part is provided at the distal end, - wherein the flexible sealing part comprises at least one core hole permeable for sound transmitted from the air filled tube through a core pathway, - wherein at least a part of the air filled tube is configured to be arranged in a user's ear canal to transmit sound generated by the Behind-The-Ear unit to a tympanic membrane of the user, and - wherein the flexible sealing part is adapted to be arranged in a bony portion of the user's ear canal and the flexible sealing part's diameter is adapted to at least have the same diameter as the bony portions' diameter of the ear canal of a user to close the ear canal of the user, characterized in that the flexible sealing part has one or more prongs on the surface of the flexible sealing part, said one or more prongs in use facing in the direction of the tympanic membrane, said prongs being of a very soft material that is at least softer than the tympanic membrane. - a Behind-The-Ear unit, which comprises a power source, a microphone, an amplifier, and a receiver and which is configured to be mounted behind or on the ear of a user and - an air filled tube having a proximal end and a distal end, where the proximal end of the air filled tube is connected to the receiver of the Behind-The-Ear unit and where a flexible sealing part is provided at the distal end, - wherein the flexible sealing part comprises at least one core hole permeable for sound transmitted from the air filled tube through a core pathway, - wherein at least a part of the air filled tube is configured to be arranged in a user's ear canal to transmit sound generated by the Behind-The-Ear unit to a tympanic membrane of the user, and - wherein the flexible sealing part is adapted to be arranged in a bony portion of the user's ear canal and the flexible sealing part's diameter is adapted to at least have the same diameter as the bony portions' diameter of the ear canal of a user to close the ear canal of the user, characterized in that the flexible sealing part has one or more prongs on the surface of the flexible sealing part, said one or more prongs in use facing in the direction of the tympanic membrane, said prongs being of a very soft material that is at least softer than the tympanic membrane.
A polypeptide fragment of Toll-like receptor 2 comprising amino acid residues His318, Pro320, Tyr323, Lys347, Phe349, Leu371, Glu375, Tyr376 and His398 of TLR2 as defined in SEQ ID NO:3 or SEQ ID NO:4; - wherein said amino acid residues His318, Pro320, Tyr323, Lys347, Phe349, Leu371, Glu375, Tyr376 and His398 form a functional epitope in said fragment, wherein binding of the epitope by an antagonistic binding member antagonises TLR2 activation and signalling and wherein said epitope is bound by TLR2 antagonistic antibody T2.5 and the humanised version thereof designated OPN-305; - wherein said fragment comprises less than 102 amino acid residues of TLR2; and - wherein said fragment of TLR2 is a fragment of TLR2 other than the extracellular domain of TLR2 comprising amino acid residues 292-586 of TLR2. - wherein said amino acid residues His318, Pro320, Tyr323, Lys347, Phe349, Leu371, Glu375, Tyr376 and His398 form a functional epitope in said fragment, wherein binding of the epitope by an antagonistic binding member antagonises TLR2 activation and signalling and wherein said epitope is bound by TLR2 antagonistic antibody T2.5 and the humanised version thereof designated OPN-305; - wherein said fragment comprises less than 102 amino acid residues of TLR2; and - wherein said fragment of TLR2 is a fragment of TLR2 other than the extracellular domain of TLR2 comprising amino acid residues 292-586 of TLR2.
An adeno-associated virus vector comprising a nucleic acid, wherein the nucleic acid comprises: (i) a nucleic acid sequence encoding frataxin; (ii) a phospho-glycerate-kinase promoter consisting of SEQ ID NO: 1; and (iii) a woodchuck hepatitis virus posttranscriptional regulatory element (WPRE); wherein (ii) and (iii) are operably linked to and regulate the expression of (i), wherein there is an operationally functional linker between (i) and (ii), wherein said linker consists of SEQ ID NO: 6, and wherein the AAV vector is an AAV serotype 9 vector. (i) a nucleic acid sequence encoding frataxin; (ii) a phospho-glycerate-kinase promoter consisting of SEQ ID NO: 1; and (iii) a woodchuck hepatitis virus posttranscriptional regulatory element (WPRE);