mhurhangee/ep-ind-claims huggingface dataset:
A refrigerated display case including a storage space and an air flow guide system (20, 88, 26, 28, 32) for supplying refrigerated air to the storage space, the air flow guide system (20, 88, 26, 28, 32) comprising: an inlet air passage extending in a horizontal direction from the front of the refrigerated display case toward a back of the refrigerated display case; a corner where the air flow exits the inlet air passage and turns toward a vertical direction passing around an inside surface of the corner; a low pressure space after the corner; a pressure boundary wall separating the low pressure space from a high pressure space; at least one outlet for directing the air flow from the high pressure space to cool the storage space; and a fan for generating a pressure difference between the low pressure space and the high pressure space to thereby draw air through the inlet air passage and around the corner before driving it out of the at least one outlet; wherein the corner includes a curved or chamfered portion on the inside surface extending between an upper boundary of the inlet air passage and an internal surface of the low pressure space, with the curved or chamfered portion of the inside surface extending at least 10 mm in both the vertical and horizontal directions, characterised by at least one foot part placed within the inlet air passage, wherein the foot part supports at least a portion of the weight of one or more components of the refrigerated display case that are placed above the inlet air passage. an inlet air passage extending in a horizontal direction from the front of the refrigerated display case toward a back of the refrigerated display case; a corner where the air flow exits the inlet air passage and turns toward a vertical direction passing around an inside surface of the corner; a low pressure space after the corner; a pressure boundary wall separating the low pressure space from a high pressure space; at least one outlet for directing the air flow from the high pressure space to cool the storage space; and a fan for generating a pressure difference between the low pressure space and the high pressure space to thereby draw air through the inlet air passage and around the corner before driving it out of the at least one outlet; wherein the corner includes a curved or chamfered portion on the inside surface extending between an upper boundary of the inlet air passage and an internal surface of the low pressure space, with the curved or chamfered portion of the inside surface extending at least 10 mm in both the vertical and horizontal directions, characterised by at least one foot part placed within the inlet air passage, wherein the foot part supports at least a portion of the weight of one or more components of the refrigerated display case that are placed above the inlet air passage.
Hydraulic component, in particular for braking systems and/or clutch drives, comprising - at least one connector fitted with a supply pipe, suitable for receiving incoming hydraulic fluid, and an eyelet for sending the fluid in output, - a block or nut screw with a supply channel, - an inlet plug with a hollow cylindrical body for receiving the fluid in output from the eyelet and bringing it into said er- supply channel made on said block or nut screw, - the inlet plug being inserted coaxially to a hole delimited by the eyelet, - at least one upper seal interposed between an upper surface of the eyelet and a head of the inlet plug, - at least one bottom seal interposed between a lower surface of the eyelet and a base of the block, characterised in that - between at least one of said upper and lower surfaces (68, 84) of the eyelet and the corresponding head or base a protuberance is interposed (96a, 96b), respectively, above or below designed or configured so that, in the absence of the corresponding seal (64, 80), the protuberance (96a, 96b) stops in abutment thereby creating an interspace in the portion adjacent to the protuberance (96a, 96b) itself and/or in a position diametrically opposite thereto, the interspace further being between said upper and lower surfaces (68, 84) of the eyelet and the corresponding head or base allowing the leakage of fluid. - at least one connector fitted with a supply pipe, suitable for receiving incoming hydraulic fluid, and an eyelet for sending the fluid in output, - a block or nut screw with a supply channel, - an inlet plug with a hollow cylindrical body for receiving the fluid in output from the eyelet and bringing it into said er- supply channel made on said block or nut screw, - the inlet plug being inserted coaxially to a hole delimited by the eyelet, - at least one upper seal interposed between an upper surface of the eyelet and a head of the inlet plug, - at least one bottom seal interposed between a lower surface of the eyelet and a base of the block, - between at least one of said upper and lower surfaces (68, 84) of the eyelet and the corresponding head or base a protuberance is interposed (96a, 96b), respectively, above or below designed or configured so that, in the absence of the corresponding seal (64, 80), the protuberance (96a, 96b) stops in abutment thereby creating an interspace in the portion adjacent to the protuberance (96a, 96b) itself and/or in a position diametrically opposite thereto, the interspace further being between said upper and lower surfaces (68, 84) of the eyelet and the corresponding head or base allowing the leakage of fluid.
A computer system (102,600) configured to perform: obtaining resource customization information, the resource customization information identifying a resource associated with an application and defining a customized view of the resource; generating a parameterized state (204A,204B,204C,204D) based on the resource customization information, wherein the parameterized state includes one or more parameters that enable the application to start in a specific state; sharing the parameterized state with a plurality of computing devices such that the parameterized state can be activated on each computing device to cause the customized view of the resource to be presented on each computing device, wherein activation of the parameterized state comprises passing the one or more parameters to the application to cause the application to start in the specific state on each computing device on which the parameterized state is activated; and providing an interface (200, 300, 350, 400) through which the parameterized state is accessible. obtaining resource customization information, the resource customization information identifying a resource associated with an application and defining a customized view of the resource; generating a parameterized state (204A,204B,204C,204D) based on the resource customization information, wherein the parameterized state includes one or more parameters that enable the application to start in a specific state; sharing the parameterized state with a plurality of computing devices such that the parameterized state can be activated on each computing device to cause the customized view of the resource to be presented on each computing device, wherein activation of the parameterized state comprises passing the one or more parameters to the application to cause the application to start in the specific state on each computing device on which the parameterized state is activated; and providing an interface (200, 300, 350, 400) through which the parameterized state is accessible.
A method of applying a load to a pile, comprising: locating a top portion of a load cell below a first section of a pile, wherein the top section is attached to the first section of the pile; locating a bottom portion of the load cell proximate the top portion of the load cell, wherein at least a portion of the cross-section of the top portion of the load cell and at least a portion of the cross-section of the bottom portion of the load cell is open so as to allow the passage of materials from above the top portion of the load cell to below the bottom portion of the load cell, wherein if separation of the top portion of the load cell and the bottom portion of the load cell occurs, the top portion of the load cell and bottom portion of the load cell maintain relative lateral position during separation; wherein the top portion of the load cell and bottom portion of the load cell are located before casting of the pile, wherein materials for casting the pile pass through the open portion of the top portion cross-section and the open portion of the bottom portion cross-section; characterized in that a separation zone is created and a fluid is injected into the separation zone in order to apply a load to the pile, such that injection of a pressurized fluid into the separation zone causes a force tending to push the top portion of the load cell and the bottom portion of the load cell apart and causes the top portion of the load cell to push up on the first section of the pile. locating a top portion of a load cell below a first section of a pile, wherein the top section is attached to the first section of the pile; locating a bottom portion of the load cell proximate the top portion of the load cell, wherein at least a portion of the cross-section of the top portion of the load cell and at least a portion of the cross-section of the bottom portion of the load cell is open so as to allow the passage of materials from above the top portion of the load cell to below the bottom portion of the load cell, wherein if separation of the top portion of the load cell and the bottom portion of the load cell occurs, the top portion of the load cell and bottom portion of the load cell maintain relative lateral position during separation; wherein the top portion of the load cell and bottom portion of the load cell are located before casting of the pile, wherein materials for casting the pile pass through the open portion of the top portion cross-section and the open portion of the bottom portion cross-section; characterized in that a separation zone is created and a fluid is injected into the separation zone in order to apply a load to the pile, such that injection of a pressurized fluid into the separation zone causes a force tending to push the top portion of the load cell and the bottom portion of the load cell apart and causes the top portion of the load cell to push up on the first section of the pile.
A composite including a rod-shaped molybdenum oxide and amorphous iron molybdate islands provided on the rod-shaped molybdenum oxide, wherein the content of islands is 10 wt% or less with respect to the entire composite, wherein the size of the island is in a range of 10 nm to 50 nm, as measured by SEM analysis, and wherein a ratio of respective particle numbers constituting the rod-shaped molybdenum oxide and the islands in the composite is in a range of 30:1 to 60:1, and wherein the mass ratio of Fe to Mo in the composite is in a range of 1:30 to 1:60.
A method of designing a dynamic patient-specific orthopedic implant comprising: utilizing patient-specific pathological motion data and a deep neural network trained by healthy joint motions to generate a patient-specific healthy kinematic profile (23-B); accessing a database comprising implant types, where each implant type includes a family having different implant sizes; fitting template implant models onto a patient-specific joint model to iteratively evaluate possible shapes of the dynamic patient-specific orthopedic implant during kinematic simulations to generate simulated kinematic data; optimizing the template implant models to change a shape of the template implant models; fitting the optimized template implant models onto the patient-specific joint model to iteratively evaluate possible shapes of the dynamic patient-specific orthopedic implant during a subsequent kinematic simulation to generate revised simulated kinematic data; comparing the generated revised simulated kinematic data to the patient-specific healthy kinematic profile; and, selecting a dynamic patient-specific orthopedic implant shape using the optimized template implant model that best replicates the patient-specific healthy kinematic profile. utilizing patient-specific pathological motion data and a deep neural network trained by healthy joint motions to generate a patient-specific healthy kinematic profile (23-B); accessing a database comprising implant types, where each implant type includes a family having different implant sizes; fitting template implant models onto a patient-specific joint model to iteratively evaluate possible shapes of the dynamic patient-specific orthopedic implant during kinematic simulations to generate simulated kinematic data; optimizing the template implant models to change a shape of the template implant models; fitting the optimized template implant models onto the patient-specific joint model to iteratively evaluate possible shapes of the dynamic patient-specific orthopedic implant during a subsequent kinematic simulation to generate revised simulated kinematic data; comparing the generated revised simulated kinematic data to the patient-specific healthy kinematic profile; and, selecting a dynamic patient-specific orthopedic implant shape using the optimized template implant model that best replicates the patient-specific healthy kinematic profile.
An electronic device comprising: a printed circuit board, the printed circuit board including secure posts; a heat source located on the printed circuit board; and an active loading mechanism secured to the printed circuit board constrained by attachments at the secure posts, wherein the active loading mechanism includes extensions, a main body and a heatsink, wherein the main body is over the heatsink and the heatsink is over the heat source, wherein the extensions extend from the main body to the secure posts, the extensions being comprised of shape memory material, and wherein the active loading mechanism applies a first load on the heat source when the shape memory material is not activated and applies a second load on the heat source when the shape memory material is activated. a printed circuit board, the printed circuit board including secure posts; a heat source located on the printed circuit board; and an active loading mechanism secured to the printed circuit board constrained by attachments at the secure posts, wherein the active loading mechanism includes extensions, a main body and a heatsink, wherein the main body is over the heatsink and the heatsink is over the heat source, wherein the extensions extend from the main body to the secure posts, the extensions being comprised of shape memory material, and wherein the active loading mechanism applies a first load on the heat source when the shape memory material is not activated and applies a second load on the heat source when the shape memory material is activated.
A curable resin composition, comprising: a cyanate ester compound; a dehydrating agent chosen among carbodiimide compounds, imidazole compounds, triazine compounds, phosphonium compounds, uronium compounds, and silane compounds; a maleimide compound; and a siloxane compound represented by the following average composition formula: XaYbZcSiOd wherein: each X is the same or different and represents an organic structure containing an imide bond; each Y is the same or different and represents at least one selected from the group consisting of a hydrogen atom, a hydroxy group, a halogen atom, and an OR group; each Z is the same or different and represents an organic group containing no imide bond; each R is the same or different and represents at least one selected from the group consisting of an alkyl group, an acyl group, an aryl group, and an unsaturated aliphatic residue, and may have a substituent; a, b, and c each represent 0 or a number of less than 3; d represents a number of less than 2, excluding 0; a + b + c + 2d = 4; and 0 < a < 3. a cyanate ester compound; a dehydrating agent chosen among carbodiimide compounds, imidazole compounds, triazine compounds, phosphonium compounds, uronium compounds, and silane compounds; a maleimide compound; and a siloxane compound represented by the following average composition formula: XaYbZcSiOd wherein: each X is the same or different and represents an organic structure containing an imide bond; each Y is the same or different and represents at least one selected from the group consisting of a hydrogen atom, a hydroxy group, a halogen atom, and an OR group; each Z is the same or different and represents an organic group containing no imide bond; each R is the same or different and represents at least one selected from the group consisting of an alkyl group, an acyl group, an aryl group, and an unsaturated aliphatic residue, and may have a substituent; a, b, and c each represent 0 or a number of less than 3; d represents a number of less than 2, excluding 0; a + b + c + 2d = 4; and 0 < a < 3. each X is the same or different and represents an organic structure containing an imide bond; each Y is the same or different and represents at least one selected from the group consisting of a hydrogen atom, a hydroxy group, a halogen atom, and an OR group; each Z is the same or different and represents an organic group containing no imide bond; each R is the same or different and represents at least one selected from the group consisting of an alkyl group, an acyl group, an aryl group, and an unsaturated aliphatic residue, and may have a substituent; a, b, and c each represent 0 or a number of less than 3; d represents a number of less than 2, excluding 0; a + b + c + 2d = 4; and 0 < a < 3.
A digital amplifier apparatus that amplifies an input signal from a tuner receiving a broadcast signal of a set receiving frequency, the digital amplifier apparatus comprising: a band division section that divides the input signal into a plurality of bands; a cutoff frequency control section that controls a cutoff frequency in the band division section based on the receiving frequency from the tuner; a pulse width modulation section (103a, 103b) that modulates the bands of the input signal divided in the band division section by a pulse width modulation scheme; a switching frequency control section that acquires the receiving frequency in the tuner and controls switching frequencies in the pulse width modulation section (103a, 103b); and an amplification section (104a, 104b) that amplifies the input signal subjected to pulse width modulation in the pulse width modulation section (103a, 103b). a band division section that divides the input signal into a plurality of bands; a cutoff frequency control section that controls a cutoff frequency in the band division section based on the receiving frequency from the tuner; a pulse width modulation section (103a, 103b) that modulates the bands of the input signal divided in the band division section by a pulse width modulation scheme; a switching frequency control section that acquires the receiving frequency in the tuner and controls switching frequencies in the pulse width modulation section (103a, 103b); and an amplification section (104a, 104b) that amplifies the input signal subjected to pulse width modulation in the pulse width modulation section (103a, 103b).
A heat exchanger for a refrigeration appliance and condensing a refrigerant fluid through refrigerant flow tube in serpentine form where the refrigerant flow is provided, said heat exchanger being disposed against a fan structurally integrally provided to effect forced heat convection for cooling said refrigerant flow tube by blowing air thereon, wherein - two upright elements are provided to carry and support said refrigerant flow tubes such that linear arms thereof are fitted into mounting slits on each upright element, - a locking means is secured to upper parts of the two upright elements so as to keep the distance thereinbetween constant and avoid the same moving away from each other, characterized in that - the refrigerant flow tube is in mini-channel structure, and - accordion-like fins in compressed form are provided to fit into rectangular openings delimited by two opposite upright elements at both sides and by two arms of the serpentine-form refrigerant flow tubes from above and below in contact therewith, wherein the accordion-like fins apply flexure forces on the lateral inner surfaces of the upright elements is structurally balanced by the locking means. - two upright elements are provided to carry and support said refrigerant flow tubes such that linear arms thereof are fitted into mounting slits on each upright element, - a locking means is secured to upper parts of the two upright elements so as to keep the distance thereinbetween constant and avoid the same moving away from each other, characterized in that - the refrigerant flow tube is in mini-channel structure, and - accordion-like fins in compressed form are provided to fit into rectangular openings delimited by two opposite upright elements at both sides and by two arms of the serpentine-form refrigerant flow tubes from above and below in contact therewith, wherein the accordion-like fins apply flexure forces on the lateral inner surfaces of the upright elements is structurally balanced by the locking means.
An isolated polypeptide having xylanase activity, selected from the group consisting of: (a) a polypeptide having at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1 or the cDNA sequence thereof; (c) a variant of the mature polypeptide of SEQ ID NO: 2 comprising a substitution, deletion, and/or insertion at one or more positions, wherein the number is not more than 10; and (d) a fragment of the polypeptide of (a), (b), or (c) that has xylanase activity and wherein a fragment means a fragment containing at least amino acid residues 18-364 of SEQ ID NO: 2. (a) a polypeptide having at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1 or the cDNA sequence thereof; (c) a variant of the mature polypeptide of SEQ ID NO: 2 comprising a substitution, deletion, and/or insertion at one or more positions, wherein the number is not more than 10; and (d) a fragment of the polypeptide of (a), (b), or (c) that has xylanase activity and wherein a fragment means a fragment containing at least amino acid residues 18-364 of SEQ ID NO: 2.