mhurhangee/ep-ind-claims huggingface dataset:
A system for anatomical registration, comprising: a registration probe, comprising: a registration probe body having a distal portion, an intermediate portion, a proximal portion, and a longitudinal axis defined by the intermediate portion; a dynamic engagement tip operably coupled to a distal end of the distal portion, wherein the dynamic engagement tip that is rotatable with respect to the registration probe; and a locator coupled to the proximal portion; and a data collection unit, wherein, in operation, the dynamic engagement tip of the registration probe is placed in continuous contact with and moved around a selected anatomical area during anatomical registration, wherein the dynamic engagement tip comprises a radially unconstrained roller configured to move in any direction as it is rolled over a surface of the selected anatomical area so that the registration probe is movable relative to the selected anatomical area via rotation of the radially unconstrained roller, wherein the data collection unit is configured to collect physical space data corresponding to a plurality of surface points at a data collection rate during a selected time period of anatomical registration; and wherein the data collection unit is configured to determine at least one of a plurality of point-based registrations and distance between individual surface points from the physical space data. a registration probe, comprising: a registration probe body having a distal portion, an intermediate portion, a proximal portion, and a longitudinal axis defined by the intermediate portion; a dynamic engagement tip operably coupled to a distal end of the distal portion, wherein the dynamic engagement tip that is rotatable with respect to the registration probe; and a locator coupled to the proximal portion; and a registration probe body having a distal portion, an intermediate portion, a proximal portion, and a longitudinal axis defined by the intermediate portion; a dynamic engagement tip operably coupled to a distal end of the distal portion, wherein the dynamic engagement tip that is rotatable with respect to the registration probe; and a locator coupled to the proximal portion; and a data collection unit, wherein, in operation, the dynamic engagement tip of the registration probe is placed in continuous contact with and moved around a selected anatomical area during anatomical registration, wherein the dynamic engagement tip comprises a radially unconstrained roller configured to move in any direction as it is rolled over a surface of the selected anatomical area so that the registration probe is movable relative to the selected anatomical area via rotation of the radially unconstrained roller, wherein the data collection unit is configured to collect physical space data corresponding to a plurality of surface points at a data collection rate during a selected time period of anatomical registration; and wherein the data collection unit is configured to determine at least one of a plurality of point-based registrations and distance between individual surface points from the physical space data.
A stopper or anchor for closing a breakthrough or opening in a concrete component, comprising an elastic sleeve having a first sleeve end and a second sleeve end, a bolt extending through the sleeve and having a screw thread with a nut screwed thereon at one end thereof and a bolt head or a further screw thread with a further nut screwed thereon at the other end thereof, wherein a securing means is provided between the nut and the sleeve or between the bolt head or the further nut and the sleeve, wherein the securing means has a pressure plate and a pressure plate aperture through which the bolt extends, and is supported via this pressure plate at the first sleeve end or at the second sleeve end, wherein at the respective other one of the sleeve ends (18, 19) the bolt head arranged there or the nut or further nut arranged there is supported at this other one of the sleeve ends (18, 19) directly or via a thrust washer arranged between this bolt head or this nut or this further nut and the sleeve, wherein the securing means comprises at least one clamping means resiliently connected to the pressure plate, wherein the clamping means projects laterally beyond an outer surface of the sleeve which is mentally extended in the direction of the securing means and beyond the securing means, in order to secure the securing means in the breakthrough or opening against rotation relative to the concrete component, and wherein the securing means arranged between the nut or the bolt head or the further nut and the sleeve is secured relative to this nut or this bolt head or this further nut is secured against rotation.
A lubricant formulation for use in an electric or hybrid vehicle comprising: a. a base oil suitable for use in an electric or hybrid vehicle; b. a first gear oil additive; and c. a second additive, wherein the second additive comprises diisotridecylamine molybdate in an amount of 0.5 (w/w) % of the lubricant formulation, wherein the base oil is selected from the group consisting of a group I oil, a group II oil, a group III oil, a group IV oil, a group V oil, or a combination thereof. a. a base oil suitable for use in an electric or hybrid vehicle; b. a first gear oil additive; and c. a second additive, wherein the second additive comprises diisotridecylamine molybdate in an amount of 0.5 (w/w) % of the lubricant formulation, wherein the base oil is selected from the group consisting of a group I oil, a group II oil, a group III oil, a group IV oil, a group V oil, or a combination thereof.
Use of a material that reacts and/or expands in contact with a liquid or gaseous hydrocarbon as an additive into a cement composition, comprising a pumpable slurry of cement and water, to cause expansion of the set cement when the said set cement is contacted with liquid or gaseous hydrocarbon and wherein the material that reacts and/or expands in contact with liquid or gaseous hydrocarbon is ground rubber obtained by recycling tires, wherein the material has a granular dimension of less than 850 μm and is present at a concentration up to 40% by weight of the solid content of the cement slurry.
A work machine comprising: an attachment (90; 91; 92; 93) movable by an actuator; an operational member for operating the attachment (90; 91; 92; 93) through the actuator; a control valve for feeding working oil to the actuator for moving the attachment (90; 91; 92; 93); a controller operable to output an operation signal for operating the actuator in response to an operation of the operational member; and two electromagnetic valves (35h, 35i) connected to said control valve to adjust a pilot pressure for said control valve so that said actuator is movable in one direction and the other direction opposite to said one direction; characterized in that said controller includes an operation signal varying function for varying the operation signal corresponding to an operational amount of the operational member; and that said operation signal varying function allows setting of a change amount in the operation signal in multiple steps and independently for each of said two electromagnetic valves (35h, 35i), to thereby allow the change amount in the operation signal corresponding to an operational amount of the operational member, to be set in multiple steps and independently for each operational direction of the actuator. an attachment (90; 91; 92; 93) movable by an actuator; an operational member for operating the attachment (90; 91; 92; 93) through the actuator; a control valve for feeding working oil to the actuator for moving the attachment (90; 91; 92; 93); a controller operable to output an operation signal for operating the actuator in response to an operation of the operational member; and two electromagnetic valves (35h, 35i) connected to said control valve to adjust a pilot pressure for said control valve so that said actuator is movable in one direction and the other direction opposite to said one direction; said controller includes an operation signal varying function for varying the operation signal corresponding to an operational amount of the operational member; and that said operation signal varying function allows setting of a change amount in the operation signal in multiple steps and independently for each of said two electromagnetic valves (35h, 35i), to thereby allow the change amount in the operation signal corresponding to an operational amount of the operational member, to be set in multiple steps and independently for each operational direction of the actuator.
A process for the preparation of a masonry composite material, comprising: (a) mixing at least one type of absorbable mineral composition in particulate form, with at least one type of cement composition and a quantity of water to thereby obtain a first mixture; at least 50 % weight of the absorbable mineral composition particles having a size of less than about 2mm; wherein the absorbable mineral composition is limestone; the absorbable mineral composition having liquid absorbance of at least 25% by weight as measured by British Standards BS EN 1925:1999 or BS EN 13755:2008; the cement being present in the first mixture in an amount of between 5 and 15 wt%, and said quantity of water is between about 15 and 30 wt% of the total weight of the first mixture; (b) transferring the first mixture into a mold having a predetermined shape; (c) applying pressure of between about 5 and 20 N/mm 2 at a load rate of between about 0.5 and 2 N/mm 2 /sec onto the first mixture for draining at least 10 vol% of liquid from the first mixture, thereby providing a drained first mixture; said draining of at least 10 vol% liquid denotes draining of at least 10 vol% from the total amount of liquid components in said first mixture prior to application of said pressure; and (d) curing said drained first mixture under curing conditions permitting to obtain said masonry composite material, the masonry composite material having a water content of up to 10 wt% water. (a) mixing at least one type of absorbable mineral composition in particulate form, with at least one type of cement composition and a quantity of water to thereby obtain a first mixture; at least 50 % weight of the absorbable mineral composition particles having a size of less than about 2mm; wherein the absorbable mineral composition is limestone; the absorbable mineral composition having liquid absorbance of at least 25% by weight as measured by British Standards BS EN 1925:1999 or BS EN 13755:2008; the cement being present in the first mixture in an amount of between 5 and 15 wt%, and said quantity of water is between about 15 and 30 wt% of the total weight of the first mixture; (b) transferring the first mixture into a mold having a predetermined shape; (c) applying pressure of between about 5 and 20 N/mm 2 at a load rate of between about 0.5 and 2 N/mm 2 /sec onto the first mixture for draining at least 10 vol% of liquid from the first mixture, thereby providing a drained first mixture; said draining of at least 10 vol% liquid denotes draining of at least 10 vol% from the total amount of liquid components in said first mixture prior to application of said pressure; and (d) curing said drained first mixture under curing conditions permitting to obtain said masonry composite material, the masonry composite material having a water content of up to 10 wt% water.
An input device comprising: a display unit including a light guide plate disposed between a beam splitter and a retroreflective member and a light source irradiating the light guide plate, and configured to display an aerial image of a light diffusion surface formed on the light guide plate in response to incident light; characterized by a detection unit disposed on a bottom surface side of the display unit and configured to detect a user operation related to the aerial image, wherein the display unit changes its position when being pressed by the user to perform input and the detection unit detects a position change of the display unit as the user operation, wherein the display unit switches on and off of the light source based on a detection result of the detection unit. a display unit including a light guide plate disposed between a beam splitter and a retroreflective member and a light source irradiating the light guide plate, and configured to display an aerial image of a light diffusion surface formed on the light guide plate in response to incident light; characterized by a detection unit disposed on a bottom surface side of the display unit and configured to detect a user operation related to the aerial image, wherein the display unit changes its position when being pressed by the user to perform input and the detection unit detects a position change of the display unit as the user operation, wherein the display unit switches on and off of the light source based on a detection result of the detection unit.
A finishing agent for a trivalent chromium chemical conversion coating film, comprising: a trivalent chromium source; a phosphate ion source; a zinc ion source; a chelating agent capable of forming a complex with trivalent chromium; a nonionic water-soluble polymer selected from the group consisting of polyvinyl alcohol and its derivatives, polyvinylpyrrolidone and its derivatives, polyalkylene glycol and its derivatives, and cellulose ether and its derivatives, a stain-blocking agent selected from urea, thiourea, thiourea dioxide, and their derivatives, and water; wherein the finishing agent is in the form of an aqueous solution. a trivalent chromium source; a phosphate ion source; a zinc ion source; a chelating agent capable of forming a complex with trivalent chromium; a nonionic water-soluble polymer selected from the group consisting of polyvinyl alcohol and its derivatives, polyvinylpyrrolidone and its derivatives, polyalkylene glycol and its derivatives, and cellulose ether and its derivatives, a stain-blocking agent selected from urea, thiourea, thiourea dioxide, and their derivatives, and water; wherein the finishing agent is in the form of an aqueous solution.
Air separation device comprising a double column comprising a medium pressure column and a low-pressure column, a main exchanger, a vaporiser, a main compressor, a means of sending all air to be treated from the double column to the main compressor in order to produce air substantially at pressure P1 of the medium-pressure column, a means of sending a part of the air substantially at a high pressure P2 to the main exchanger and then to the vaporiser, a conduit for sending air that has been at least partially condensed in the vaporiser to at least one of the columns, a conduit for sending air at pressure P1 to the medium-pressure column, a means of pressurisation consisting of a first pump, a conduit for extracting liquid oxygen from the low-pressure column and for sending it to the means of pressurisation, a conduit for sending the pressurised liquid oxygen of a pressure of less than 9 bar abs from the pressurising means to the vaporiser, a conduit for sending gaseous oxygen from the vaporiser to the main exchanger to be heated in order to form a first flow of gaseous oxygen, characterised in that it comprises a second pump for purge liquid, a purge conduit for sending liquid oxygen from the vaporiser purge to the second purge liquid pump to be pressurised, the purge conduit not being connected to a purge liquid storage, in that it comprises - either a conduit for sending the pressurised oxygen from the second pump to the main exchanger to be vaporised and to form a second gaseous oxygen flow, - or an exchanger separate from the main exchanger and a conduit for sending the pressurised oxygen from the second pump to the exchanger to be vaporised and to form a second gaseous oxygen flow in that it comprises a conduit of compressed air connected to the main compressor and to a conduit connected to the double column, the main exchanger, or as the case may be, the exchanger being connected to the compressed air conduit connected to the main compressor and to the conduit connected to the double column, in that it comprises a pressurised gas storage connected to the purge oxygen vaporisation exchanger (21, 21A) in order to collect the gaseous oxygen. - either a conduit for sending the pressurised oxygen from the second pump to the main exchanger to be vaporised and to form a second gaseous oxygen flow, - or an exchanger separate from the main exchanger and a conduit for sending the pressurised oxygen from the second pump to the exchanger to be vaporised and to form a second gaseous oxygen flow
Hybrid machine tool for milling and boring that comprises a first carriage capable of movement in at least one of the three axes X, Y, Z, with a first head assembly face (1.11) and a longitudinal axis; a second carriage arranged in the first carriage, the first carriage comprises at least guide means (1.1) arranged parallel to the longitudinal axis, the second carriage can move on the guide means (1.1) along the direction of the longitudinal axis; a boring head comprising a first support (3.1) with a second assembly face (3.11), a casing (3.3) arranged inside the first support (3.1), bearings (3.2) between the first support (3.1) and the casing (3.3), and a boring bar (3.4) inside the casing (3.3) capable of moving relative thereto; a milling head comprising a third assembly face (4.11), a second support (4.1) and a second shaft (4.2); so that when the boring head or the milling head is mounted on the first carriage, the second (3.11) or third assembly face (4.11) is in contact with the first assembly face (1.11), characterised in that the second carriage comprises rotation drive means with a first shaft (2.1), output shaft, with a working axis parallel to the longitudinal axis and a coupling (2.2) arranged at the end of the first shaft (2.1) oriented towards the first assembly face (1.11) of the first carriage, the boring bar (3.4) or the second shaft (4.2) is aligned with the first shaft (2.1) and its working axis, and the coupling (2.2) is configured to be able to be attached directly to the boring bar (3.4) of the boring head or the second shaft (4.2) of the milling head.
Process for manufacturing a microcircuit card comprising, between two overlay layers forming the outer faces of this card, a plastic film, of which the degree of shrinkage is less than 1% after heating between 100°C and 250°C, and bearing at least one electronic component and an assembly of layers wherein a cavity is formed that contains said film and the electronic component, comprising the steps consisting in: - forming said assembly so that it comprises a central layer made of a plastic, of which the degree of shrinkage is less than 1% after heating between 100°C and 250°C, between two layers (15, 17) made of a plastic, of which the degree of shrinkage is between 3% and 5% after heating between 100°C and 250°C, - forming a through-cavity through this assembly, the surface area of which is equal to between 60% and 90% of the surface area of the outer faces of the microcircuit card to be manufactured, - embedding the film and the electronic component in a resin so as to occupy the volume of the cavity, - hot laminating, at a temperature of at least 110°C, this assembly of layers comprising the resin and the film with the electronic component, between two overlay layers (19, 20) so as to obtain a microcircuit card having flat faces. - forming said assembly so that it comprises a central layer made of a plastic, of which the degree of shrinkage is less than 1% after heating between 100°C and 250°C, between two layers (15, 17) made of a plastic, of which the degree of shrinkage is between 3% and 5% after heating between 100°C and 250°C, - forming a through-cavity through this assembly, the surface area of which is equal to between 60% and 90% of the surface area of the outer faces of the microcircuit card to be manufactured, - embedding the film and the electronic component in a resin so as to occupy the volume of the cavity, - hot laminating, at a temperature of at least 110°C, this assembly of layers comprising the resin and the film with the electronic component, between two overlay layers (19, 20) so as to obtain a microcircuit card having flat faces.
A method, comprising: coating a substrate with a conductive layer comprising nanowires; applying a pattern of a conductive interconnect material on the conductive layer to generate on the substrate one or more first regions of exposed conductive layer and one or more second regions of conductive interconnect material; hardening or curing the conductive interconnect material to form a patterned interconnect circuit; applying on at least a portion of the patterned interconnect circuit a protective layer forming composition comprising an organosulfur compound; overcoating the patterned interconnect circuit and the protective layer forming composition with a liquid strippable polymer layer-forming composition; hardening or curing the strippable polymer layer-forming composition to form a strippable polymer layer; peeling the strippable polymer layer from the substrate; and removing the exposed conductive layer from the substrate in the one or more first regions of the substrate to form a patterned conductive layer on the substrate, wherein the patterned conductive layer is at least partially overlain by the patterned interconnect circuit, and the patterned interconnect circuit is at least partially overlain by the protective layer. coating a substrate with a conductive layer comprising nanowires; applying a pattern of a conductive interconnect material on the conductive layer to generate on the substrate one or more first regions of exposed conductive layer and one or more second regions of conductive interconnect material; hardening or curing the conductive interconnect material to form a patterned interconnect circuit; applying on at least a portion of the patterned interconnect circuit a protective layer forming composition comprising an organosulfur compound; overcoating the patterned interconnect circuit and the protective layer forming composition with a liquid strippable polymer layer-forming composition; hardening or curing the strippable polymer layer-forming composition to form a strippable polymer layer; peeling the strippable polymer layer from the substrate; and removing the exposed conductive layer from the substrate in the one or more first regions of the substrate to form a patterned conductive layer on the substrate, wherein the patterned conductive layer is at least partially overlain by the patterned interconnect circuit, and the patterned interconnect circuit is at least partially overlain by the protective layer.
An apparatus (104, 204, 204B) for performing offloaded processing, comprising: means (114, 214) for receiving raw or waveform data from a device (102, 202, 202B); means for generating waveform encoded data from the received raw or waveform data; and means (130, 224) for transmitting the waveform encoded data back to the device (102, 202, 202B) via a wireless communication link. means (114, 214) for receiving raw or waveform data from a device (102, 202, 202B); means for generating waveform encoded data from the received raw or waveform data; and means (130, 224) for transmitting the waveform encoded data back to the device (102, 202, 202B) via a wireless communication link.