mhurhangee/ep-ind-claims huggingface dataset:
An article of footwear, comprising: an upper; a sole including at least one base member, the base member including a fastener receiving portion, the fastener receiving portion including at least one female thread; and at least one cleat member including a cleat body, the cleat body including a ground-engaging end and an opposite fastening end, a fastening portion extending from the fastening end of the cleat body, the fastening portion configured to engage with the fastener receiving portion of the at least one base member, the fastening portion including a post and at least one thread that extends around the post, the thread including a draft angle wherein the thread extends a first radial distance from the post at one end of the thread and a second larger radial distance from the post at a second end of the thread; wherein the thread of the cleat member is configured to engage with the female thread of the base member. an upper; a sole including at least one base member, the base member including a fastener receiving portion, the fastener receiving portion including at least one female thread; and at least one cleat member including a cleat body, the cleat body including a ground-engaging end and an opposite fastening end, a fastening portion extending from the fastening end of the cleat body, the fastening portion configured to engage with the fastener receiving portion of the at least one base member, the fastening portion including a post and at least one thread that extends around the post, the thread including a draft angle wherein the thread extends a first radial distance from the post at one end of the thread and a second larger radial distance from the post at a second end of the thread; wherein the thread of the cleat member is configured to engage with the female thread of the base member.
Silicon carbide composites having a density of 2.95 to 3.05 g/cm 3 comprising an SiC matrix, wherein the starting materials for preparing the silicon carbide composites comprise phenolic-resin-impregnated carbon fiber bundles in a proportion of 0.5 to 10 wt.% based on the total weight of the starting materials, wherein the carbon fiber bundles have a cured phenolic resin proportion of up to 45 wt.%, wherein the carbon fiber bundles have a length of from 6 to 20 mm, a width of from 0.2 to 3 mm, and a thickness of from 0.1 to 0.8 mm, and wherein the carbon fiber bundles are uniformly distributed in the high-density SiC matrix.
A linking mechanism suitable to connect two cooling devices (C1, C2) placed side by side to each other, comprising - a body that is placed onto the side by side sides and/or corners of the cooling devices (C1, C2) and - at least two connection members (2, 102) to fix the body to both cooling devices (C1, C2) and the cooling devices (C1, C2) to be connected together, - characterized by the body comprising more than one spacer (3, 103) each having a different width, a width that enables that a predetermined distance remains between the two cooling devices (C1, C2) and that enables the cooling devices (C1, C2) to be grouped with a different distance therebetween; one of the spacers (3, 103) staying between the cooling devices (C1, C2) when the cooling devices (C1, C2) are connected. - a body that is placed onto the side by side sides and/or corners of the cooling devices (C1, C2) and - at least two connection members (2, 102) to fix the body to both cooling devices (C1, C2) and the cooling devices (C1, C2) to be connected together, - characterized by the body comprising more than one spacer (3, 103) each having a different width, a width that enables that a predetermined distance remains between the two cooling devices (C1, C2) and that enables the cooling devices (C1, C2) to be grouped with a different distance therebetween; one of the spacers (3, 103) staying between the cooling devices (C1, C2) when the cooling devices (C1, C2) are connected.
A method of edge modification to modify an edge of an object comprising: placing a roller (202, 902, 1102, 1302) in contact with an edge of the object, measuring a first position of the roller, moving the roller along the edge from the first position to a second position, measuring the second position of the roller, wherein the first position and the second position are defined by a pair of coordinates (x, y) in a coordinate system; calculating a desired force direction from the first position and the second position measurements, applying a force, by a pressure roller (202, 902, 1102, 1304), along the desired force direction at the second position. placing a roller (202, 902, 1102, 1302) in contact with an edge of the object, measuring a first position of the roller, moving the roller along the edge from the first position to a second position, measuring the second position of the roller, wherein the first position and the second position are defined by a pair of coordinates (x, y) in a coordinate system; calculating a desired force direction from the first position and the second position measurements, applying a force, by a pressure roller (202, 902, 1102, 1304), along the desired force direction at the second position.
A closure (2,32) for closing a container (1,31) having a substantially circular opening defining an axis, the closure being securable to the container by engagement beneath circumferentially spaced apart thread features, said spaced apart thread features (31A,83A) being part of a multi-start thread form which requires rotation of less than 360 degrees between the closure and the container to fasten and/or remove the closure from the container, the closure comprising a relatively rigid bore member (4,14,24,34) which, when the closure is secured to the container, extends through said opening into the interior of the container, and having an o-ring sealing member (5,15,25A,35) comprising a toroid formed of resilient elastomer material mounted or mountable in a groove (4A,14A,24A) on an outer surface of the bore member, and able to move within said groove, so as to provide a seal with a sealing surface (1B,31C) extending around an internal surface of the container when the closure is secured to the container, the closure being securable to the container by rotation about said axis through less than 360 degrees, said rotation drawing the bore member further into the container so the o-ring sealing member provides a seal between the bore member and said sealing surface.
A device for determining the maximum electrical load that can be applied to an electrical circuit comprising: a. means (22, 24, 26, 28) for determining the temperature differential (ΔT) between a section of the electrical circuit and the ambient air temperature in which the section of the electrical circuit resides; b. means (32, 34, 36, 38) for determining the actual electrical load applied to the electrical circuit; c. means for determining the design load of the electrical circuit; d. means for determining the percentage electrical load applied to the electrical circuit based on the actual electrical load applied to the electrical circuit and the design load of the electrical circuit; wherein when the section of the electrical circuit comprises an electrical joint the device further comprises a means for determining the maximum temperature differential allowed of the electrical joint and when the section of the electrical circuit comprises a conductor remote from an electrical joint the device further comprise a means for determining the maximum conductor temperature allowed for the circuit; e. means for calculating the maximum electrical load that can be applied to the electrical circuit based on the temperature differential, the percentage electrical load applied to the electrical circuit and either the maximum temperature differential or maximum conductor temperature. a. means (22, 24, 26, 28) for determining the temperature differential (ΔT) between a section of the electrical circuit and the ambient air temperature in which the section of the electrical circuit resides; b. means (32, 34, 36, 38) for determining the actual electrical load applied to the electrical circuit; c. means for determining the design load of the electrical circuit; d. means for determining the percentage electrical load applied to the electrical circuit based on the actual electrical load applied to the electrical circuit and the design load of the electrical circuit; e. means for calculating the maximum electrical load that can be applied to the electrical circuit based on the temperature differential, the percentage electrical load applied to the electrical circuit and either the maximum temperature differential or maximum conductor temperature.
An instrument for medical or surgical treatment of a human or animal patient, having an instrument body in or on which at least one channel is formed that comprises a distal end and a proximal end, wherein the channel is connectable to a fluid source at its proximal end and comprises an opening at its distal end, having an optical element that comprises at least one light passage window that is immovably arranged in the channel, having a closure device that is arranged in the channel between the light passage window and the distal end of the fluid channel and that comprises at least one closure member which is movable between an open position and a closed position, characterized in that the closure member is arranged such that it can be actuated by fluid flowing in the fluid channel having an instrument body in or on which at least one channel is formed that comprises a distal end and a proximal end, wherein the channel is connectable to a fluid source at its proximal end and comprises an opening at its distal end, having an optical element that comprises at least one light passage window that is immovably arranged in the channel, having a closure device that is arranged in the channel between the light passage window and the distal end of the fluid channel and that comprises at least one closure member which is movable between an open position and a closed position, characterized in that the closure member is arranged such that it can be actuated by fluid flowing in the fluid channel
An information processing method applicable to a terminal with multiple operating systems capable of transmitting and receiving communications, each of the multiple operating systems having a respective list of designated contacts associated therewith, the method comprising: storing, for access by each of the multiple operating systems of the terminal, data relating to the designated contacts of the multiple operating systems; receiving, by the terminal when a current operating system is active, information relating to an incoming communication; determining, by the terminal when the current operating system is active, whether or not the incoming communication relates to a designated contact by comparing a content of the received information with the stored data relating to the designated contacts of the multiple operating systems; and if the incoming communication is determined to relate to a designated contact, determining, by the terminal when the current operating system is active, an operating system for processing the incoming communication, and using the determined operating system to process the incoming communication, wherein the data relating to the designated contacts is stored without correspondence to prevent identification within the current operating system of any designated contact associated with a different operating system. storing, for access by each of the multiple operating systems of the terminal, data relating to the designated contacts of the multiple operating systems; receiving, by the terminal when a current operating system is active, information relating to an incoming communication; determining, by the terminal when the current operating system is active, whether or not the incoming communication relates to a designated contact by comparing a content of the received information with the stored data relating to the designated contacts of the multiple operating systems; and if the incoming communication is determined to relate to a designated contact, determining, by the terminal when the current operating system is active, an operating system for processing the incoming communication, and using the determined operating system to process the incoming communication, wherein the data relating to the designated contacts is stored without correspondence to prevent identification within the current operating system of any designated contact associated with a different operating system.
A molecule comprising a human IgG Fc domain modified so that it comprises a pharmacologically active peptide in a loop region, said loop region being in a non-terminal domain of the IgG Fc domain, wherein the Fc domain is an IgG1 Fc domain comprising SEQ ID NO: 599 and the pharmacologically active peptide is inserted at H 49 /E 50, Y 77 /N 78, K 107 /A 108 or L 139 /T 140 of SEQ ID NO: 599; or the Fc domain is an IgG1 Fc domain comprising SEQ ID NO: 603 and the pharmacologically active peptide is inserted at H 53 /E 54, Y 81 /N 82, K 111 /A 112 or L 143 /T 144 of SEQ ID NO: 603; or the Fc domain is an IgG1 Fc domain comprising SEQ ID NO: 604 and the pharmacologically active peptide is inserted at H 53 /E 54, Y 81 /N 82, K 111 /A 112 or M 143 /T 144 of SEQ ID NO: 604; or the Fc domain is an IgG3 Fc domain comprising SEQ ID NO: 605 and the pharmacologically active peptide is inserted at H 100 /E 101, F 128 /N 129, K 158 /A 159 or M 190 /T 191 of SEQ ID NO: 605; or the Fc domain is an IgG2 Fc domain comprising SEQ ID NO: 606 and the pharmacologically active peptide is inserted at H 49 /E 50, F 77 /N 78, K 107 /G 108 or M 139 /T 140 of SEQ ID NO: 606; or the Fc domain is an IgG4 Fc domain comprising SEQ ID NO: 607 and the pharmacologically active peptide is inserted at Q 50 /E 51, F 78 /N 79, K 108 /G 109 or M 140 /T 141 of SEQ ID NO: 607; or the Fc domain is an IgG Fc domain comprising SEQ ID NO: 608 and the pharmacologically active peptide is inserted at H 65 /E 66, F 93 /N 94, K 123 /A 124 or M 157 /T 158 of SEQ ID NO: 608. the Fc domain is an IgG1 Fc domain comprising SEQ ID NO: 599 and the pharmacologically active peptide is inserted at H 49 /E 50, Y 77 /N 78, K 107 /A 108 or L 139 /T 140 of SEQ ID NO: 599; or the Fc domain is an IgG1 Fc domain comprising SEQ ID NO: 603 and the pharmacologically active peptide is inserted at H 53 /E 54, Y 81 /N 82, K 111 /A 112 or L 143 /T 144 of SEQ ID NO: 603; or the Fc domain is an IgG1 Fc domain comprising SEQ ID NO: 604 and the pharmacologically active peptide is inserted at H 53 /E 54, Y 81 /N 82, K 111 /A 112 or M 143 /T 144 of SEQ ID NO: 604; or the Fc domain is an IgG3 Fc domain comprising SEQ ID NO: 605 and the pharmacologically active peptide is inserted at H 100 /E 101, F 128 /N 129, K 158 /A 159 or M 190 /T 191 of SEQ ID NO: 605; or the Fc domain is an IgG2 Fc domain comprising SEQ ID NO: 606 and the pharmacologically active peptide is inserted at H 49 /E 50, F 77 /N 78, K 107 /G 108 or M 139 /T 140 of SEQ ID NO: 606; or the Fc domain is an IgG4 Fc domain comprising SEQ ID NO: 607 and the pharmacologically active peptide is inserted at Q 50 /E 51, F 78 /N 79, K 108 /G 109 or M 140 /T 141 of SEQ ID NO: 607; or the Fc domain is an IgG Fc domain comprising SEQ ID NO: 608 and the pharmacologically active peptide is inserted at H 65 /E 66, F 93 /N 94, K 123 /A 124 or M 157 /T 158 of SEQ ID NO: 608.
A device for closing the left atrial appendage, comprising - a closure implant for closing the left atrial appendage, the closure implant comprising a self-expandable stent framework, which is automatically expandable from a compressed state into an expanded state, and the closure implant having a flexible material layer fixed to the stent framework, the material layer being stretched in the expanded state of the stent framework, - a catheter with a lumen for receiving the closure implant in the compressed state of the stent framework, the closure implant being releasable from the lumen by being slid out, and in so doing the stent framework being transferrable into the expanded state, the device having a flexible and elongate pulling element fixed to the flexible material layer so that the closure implant can be drawn back into the lumen of the catheter by means of the pulling element, causing the stent framework to be transferrable into the compressed state, the pulling element having a first and a second end (23, 25), characterised in that the pulling element has a thickened portion between the two ends (23, 25), so that the pulling element can be pulled out completely from the material layer by pulling on the second end, and so that the thickened portion impacts against the material layer when the pulling element is pulled at the first end, so that the closure implant can be pulled back into the lumen of the catheter when the closure implant is released. - a closure implant for closing the left atrial appendage, the closure implant comprising a self-expandable stent framework, which is automatically expandable from a compressed state into an expanded state, and the closure implant having a flexible material layer fixed to the stent framework, the material layer being stretched in the expanded state of the stent framework, - a catheter with a lumen for receiving the closure implant in the compressed state of the stent framework, the closure implant being releasable from the lumen by being slid out, and in so doing the stent framework being transferrable into the expanded state, the device having a flexible and elongate pulling element fixed to the flexible material layer so that the closure implant can be drawn back into the lumen of the catheter by means of the pulling element, causing the stent framework to be transferrable into the compressed state, the pulling element having a first and a second end (23, 25),
A gas phase biocatalysis method of enzyme conversion comprising the steps of: immobilising an enzyme composition on a support material by drying the support material and enzyme composition to form a solid phase immobilised enzyme system, the support material having a water content of 0.05%w/v to 5%w/v after drying; contacting the system with one or more reagents in the gas phase; allowing the enzyme system to convert the reagent(s) to product(s); wherein the enzyme composition comprises a first enzyme and a second enzyme or multiple enzymes; and a co-factor which is converted between first and second states; wherein the co-factor in the first state promotes reaction of the first enzyme with the one or more reagents in the gas phase; wherein the co-factor in the second state promotes reaction of the second enzyme with the one or more reagents in the gas phase; wherein the co-factor oscillates between the first and second states with the enzymes of the enzyme composition; and wherein the support material provides a micro-environment that maintains water around the immobilised enzymes and the support material is a particulate support material fluidised by passage of the gaseous reagent. immobilising an enzyme composition on a support material by drying the support material and enzyme composition to form a solid phase immobilised enzyme system, the support material having a water content of 0.05%w/v to 5%w/v after drying; contacting the system with one or more reagents in the gas phase; allowing the enzyme system to convert the reagent(s) to product(s); wherein the enzyme composition comprises a first enzyme and a second enzyme or multiple enzymes; and a co-factor which is converted between first and second states; wherein the co-factor in the first state promotes reaction of the first enzyme with the one or more reagents in the gas phase; wherein the co-factor in the second state promotes reaction of the second enzyme with the one or more reagents in the gas phase; wherein the co-factor oscillates between the first and second states with the enzymes of the enzyme composition; and wherein the support material provides a micro-environment that maintains water around the immobilised enzymes and the support material is a particulate support material fluidised by passage of the gaseous reagent.
An antisense oligonucleotide directed against the interior of exon 43 of the human dystrophin pre-mRNA which facilitates the masking of said exon for the splicing apparatus and the exclusion of said exon from the final mRNA, wherein said antisense is not a DNA or a phosphorothioate DNA consisting of the nucleotide sequence GCACTTTGCAATGCTGCTGTCTTCTTGCTTAT disclosed as SEQ ID NO:3 in EP 1 160 318 or a DNA or a phosphorothioate DNA consisting of a nucleotide sequence complementary to nucleotide sequence AGCAAGAAGACAGCAGCAUUGCAAAG disclosed as SEQ ID NO:1 in EP 1 160 318.
Computer-implemented method for replacing a security-relevant unencrypted data string from a data record by a token in a tokenisation device with the steps Reception of the security-relevant unencrypted data string from a processing device Generation of a token assigned to the unencrypted data string with the steps Provision of a replacement table with random entries, each entry being assigned an index of the replacement table, Division of the unencrypted data string into two part strings, the first part string consisting solely of the first character of the unencrypted string and the second part string consisting of the remaining characters of the unencrypted string, Calculation of an index of the replacement table from the second part string so that an entry of the replacement table is determined, Generation of a replacement character from the entry determined by the index, Replacement of the single character of the first part string by the replacement character, Interchanging of the first part string and the second part string so that the replaced character of the first part string becomes the last character or the first character of the second part string and the first character or the last character of the second part string becomes the single character of the first part string, and Repetition of the preceding steps so that a token assigned to the unencrypted data string is generated, Transmission of the token to the processing device, Reception of the token from the processing device, Reconstitution of the unencrypted data string from the token which is assigned to the unencrypted data string, with the steps Provision of the replacement table, Division of the token into two part strings, the first part string consisting of all the characters except the last character of the token and the second part string consisting solely of the last character of the token, Calculation of an index of the replacement table from the first part string so that a particular entry of the replacement table is determined, Generation of a replacement character from the entry of the replacement table determined by the index so that the single character of the second part string is replaced by the replacement character, Interchanging of the first part string and the second part string so that the single character of the second part string becomes the first character or the last character of the first part string and the last character or the first character of the first part string becomes the single character of the second part string, and Repetition of the preceding steps so that the unencrypted data string assigned to the token is reconstituted, Transmission of the unencrypted data string to the processing device.