mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of guiding dental implant planning, comprising: detecting (S10) by a computer a region where a tooth has been lost based on a tooth image; calculating (S20) by a computer an implant area where an implant object, which is a part of an implant, is to be placed in the region; and displaying (S60) by a computer the implant area on the teeth image by using a pre-determined mark. characterized in that the implant area is displayed (S60) separately for each of the implant objects, or the implant areas are displayed (S60) integrally for all the implant objects, and wherein in case that the implant areas are displayed (S60) integrally for all the implant objects, an implant area of an implant object which is selected by dragging is separately displayed (S60) from the implant area of unselected implant objects. detecting (S10) by a computer a region where a tooth has been lost based on a tooth image; calculating (S20) by a computer an implant area where an implant object, which is a part of an implant, is to be placed in the region; and displaying (S60) by a computer the implant area on the teeth image by using a pre-determined mark. characterized in that the implant area is displayed (S60) separately for each of the implant objects, or the implant areas are displayed (S60) integrally for all the implant objects, and wherein in case that the implant areas are displayed (S60) integrally for all the implant objects, an implant area of an implant object which is selected by dragging is separately displayed (S60) from the implant area of unselected implant objects.
A lateral protective element that is applicable on a base of a cylinder of a sleeve for flexographic printing and that is equipped with a register slot that can be engaged by an abutment provided on a mandrel on which said sleeve is mounted, said lateral protective element and said register slot being made as a single piece with the same type of material, said lateral protective element being a flat ring forming a primary portion of said piece and having an internal flat base adjacent to said base of said cylinder and an external flat base opposite to said base of said cylinder , said internal and external flat bases being in the form of circular crowns parallel to each other, characterized in that said register slot projects orthogonally and externally to said flat ring from said internal flat base , said register slot extending in a secondary portion of said piece housed in a complementarily-shaped notch present at an internal perimetrical edge of said base of said cylinder , said internal flat base of said flat ring matching said base of said cylinder .
A surgical impactor for striking an object with a repeatable, controlled contacting force to impel the operation of a surgical implement in opposing directions, the impactor comprising: a control circuit to control storage and release of energy output from a drive to an energy storage mechanism to produce the repeatable, controlled contacting force; an adapter configured to receive a surgical implement to interface the object; and a mass operable to contact two distinct impact surfaces based upon the repeatable, controllable contacting force delivered thereto to provide the repeatable controlled contacting force to the adapter , the provision of the repeatable, controllable contacting force to a first impact surface being effective to impel the adapter in a first direction, the provision of the repeatable controllable contacting force to a second impact surface being effective to impel the adapter in a direction opposite the first direction; the surgical impactor characterized in further comprising a gas spring; a gas spring piston ; and a cam arranged to displace the gas spring piston . a control circuit to control storage and release of energy output from a drive to an energy storage mechanism to produce the repeatable, controlled contacting force; an adapter configured to receive a surgical implement to interface the object; and a mass operable to contact two distinct impact surfaces based upon the repeatable, controllable contacting force delivered thereto to provide the repeatable controlled contacting force to the adapter , the provision of the repeatable, controllable contacting force to a first impact surface being effective to impel the adapter in a first direction, the provision of the repeatable controllable contacting force to a second impact surface being effective to impel the adapter in a direction opposite the first direction; the surgical impactor characterized in further comprising a gas spring; a gas spring piston ; and a cam arranged to displace the gas spring piston .
A method for correcting a target position (T) of a work robot in which with a left-right direction referred to as an X-axis, a front-rear direction referred to as a Y-axis, and an up-down direction referred to as a Z-axis, matrix planes each formed by continuously connecting, together in X- and Y-directions, quadrangular areas (A) being parallel to an XY-plane and each having a reference point (R) are piled up one on another at predetermined intervals in a Z-direction to thereby build up a three-dimensional matrix , and the target position (T) of the work robot designated in an operation space of the three-dimensional matrix is corrected, characterized by a rectangular parallelepiped space including an upper and lower pair of the areas (A) disposed at the predetermined intervals being referred to as a block (B), and a block (B) including the target position (T) designated in the operation space of the three-dimensional matrix being referred to as a specific block (Bs), the method comprising: (a) a step of setting two blocks contiguous with the specific block (Bs) as a first block (B1) and a second block (B2); and (b) a step of correcting the target position (T) based on respective reference points (R) in an upper area (A) and a lower area (A) of the specific block (Bs) and a measured deviation amount of the work robot from the reference points (R), respective reference points (R) in an upper area (A) and a lower area (A) of the first block (B1) and a measured deviation amount of the work robot from the reference points (R), and respective reference points (R) in an upper area (A) and a lower area (A) of the second block (B2) and a measured deviation amount of the work robot from the reference points (R). (a) a step of setting two blocks contiguous with the specific block (Bs) as a first block (B1) and a second block (B2); and (b) a step of correcting the target position (T) based on respective reference points (R) in an upper area (A) and a lower area (A) of the specific block (Bs) and a measured deviation amount of the work robot from the reference points (R), respective reference points (R) in an upper area (A) and a lower area (A) of the first block (B1) and a measured deviation amount of the work robot from the reference points (R), and respective reference points (R) in an upper area (A) and a lower area (A) of the second block (B2) and a measured deviation amount of the work robot from the reference points (R).
A coating composition comprising: a mixture comprising: (a) a polymer prepared from functional monomers comprising a (meth)acrylic monomer, an allyl monomer, or combinations thereof each having an ethylenically unsaturated double bond and an additional reactive functional group comprising an epoxy group, a hydroxyl group, an anhydride group, an amino group, a sulfonic acid group, or combinations thereof, wherein at least some of the additional reactive functional group of the functional monomer remain unreacted during formation of the polymer; and (b) a reactive diluent having at least one ethylenically unsaturated double bond, no additional functionality, and a boiling point of greater than 100°C; and a filler material; wherein the ethylenically unsaturated functional group of the reactive diluent and the additional reactive functional group remaining within the polymer do not react; and wherein the coating composition has a measured solids content of at least 95 % according to test method ASTM D2369. a mixture comprising: (a) a polymer prepared from functional monomers comprising a (meth)acrylic monomer, an allyl monomer, or combinations thereof each having an ethylenically unsaturated double bond and an additional reactive functional group comprising an epoxy group, a hydroxyl group, an anhydride group, an amino group, a sulfonic acid group, or combinations thereof, wherein at least some of the additional reactive functional group of the functional monomer remain unreacted during formation of the polymer; and (b) a reactive diluent having at least one ethylenically unsaturated double bond, no additional functionality, and a boiling point of greater than 100°C; and a filler material; (a) a polymer prepared from functional monomers comprising a (meth)acrylic monomer, an allyl monomer, or combinations thereof each having an ethylenically unsaturated double bond and an additional reactive functional group comprising an epoxy group, a hydroxyl group, an anhydride group, an amino group, a sulfonic acid group, or combinations thereof, wherein at least some of the additional reactive functional group of the functional monomer remain unreacted during formation of the polymer; and (b) a reactive diluent having at least one ethylenically unsaturated double bond, no additional functionality, and a boiling point of greater than 100°C; and a filler material; wherein the ethylenically unsaturated functional group of the reactive diluent and the additional reactive functional group remaining within the polymer do not react; and wherein the coating composition has a measured solids content of at least 95 % according to test method ASTM D2369.
A tracking device configured to track a shipment of cargo, comprising: a housing ; a tracking unit arranged within the housing and configured to collect and transmit data; a power unit having at least one power source arranged within the housing, the power unit being configured to supply power to the tracking unit; a circuit board connecting the power unit and the tracking unit, characterised in that the housing has a complementary top portion and bottom portion , the top portion and the bottom portion being pivotally coupled and the circuit board includes a metal tab arranged adjacent a conductive interface , a portion of a pull tab formed from a thin, non-conductive material is arranged between the tab and the conductive interface, wherein the tracking device is configured to transform from an inactive state to a fully active state upon removal of the pull tab. a housing ; a tracking unit arranged within the housing and configured to collect and transmit data; a power unit having at least one power source arranged within the housing, the power unit being configured to supply power to the tracking unit; a circuit board connecting the power unit and the tracking unit, characterised in that the housing has a complementary top portion and bottom portion , the top portion and the bottom portion being pivotally coupled and the circuit board includes a metal tab arranged adjacent a conductive interface , a portion of a pull tab formed from a thin, non-conductive material is arranged between the tab and the conductive interface, wherein the tracking device is configured to transform from an inactive state to a fully active state upon removal of the pull tab.
A method for producing a silicon nitride film having the following film properties (a) to (c) on a substrate having a temperature of 250°C or lower by using an organosilane gas as a raw material gas by a plasma chemical vapor deposition method, characterised in that : a processing gas obtained by adding a hydrogenous reducing gas comprising at least one of hydrogen gas, ammonia gas, amine, and hydrocarbon in a range of 200 to 2000 volumetric flow rate to an organosilane gas of 1 volumetric flow rate is used, the organosilane gas is represented by a formula (R 1 R 2 N) n SiH 4-n , wherein R 1 and R 2 are each independently a hydrocarbon group and n is any one of 2, 3 and 4, a pressure in a process chamber accommodating the substrate is adjusted to be in a range of 35 to 400 Pa, a density of high-frequency electric power applied to an electrode installed in the process chamber is adjusted to be in a range of 0.2 to 3.5 W/cm 2 , and a linear velocity of the processing gas introduced into the process chamber is in a range of 0.3 to 5.0 cm/sec, (a) an etching rate by a buffered hydrofluoric acid solution containing 20.8% of NH 4 HF 2 is 10 nm/min or lower, (b) a formation rate of a silicon oxide while being exposed to a saturated water vapor atmosphere at 208 kPa and 121°C is 2 nm/hour or lower in terms of a silicon oxide film, and (c) an internal stress in the film is in the range of -1000 to 1000 MPa. a processing gas obtained by adding a hydrogenous reducing gas comprising at least one of hydrogen gas, ammonia gas, amine, and hydrocarbon in a range of 200 to 2000 volumetric flow rate to an organosilane gas of 1 volumetric flow rate is used, the organosilane gas is represented by a formula (R 1 R 2 N) n SiH 4-n , wherein R 1 and R 2 are each independently a hydrocarbon group and n is any one of 2, 3 and 4, a pressure in a process chamber accommodating the substrate is adjusted to be in a range of 35 to 400 Pa, a density of high-frequency electric power applied to an electrode installed in the process chamber is adjusted to be in a range of 0.2 to 3.5 W/cm 2 , and a linear velocity of the processing gas introduced into the process chamber is in a range of 0.3 to 5.0 cm/sec, (a) an etching rate by a buffered hydrofluoric acid solution containing 20.8% of NH 4 HF 2 is 10 nm/min or lower, (b) a formation rate of a silicon oxide while being exposed to a saturated water vapor atmosphere at 208 kPa and 121°C is 2 nm/hour or lower in terms of a silicon oxide film, and (c) an internal stress in the film is in the range of -1000 to 1000 MPa. (a) an etching rate by a buffered hydrofluoric acid solution containing 20.8% of NH 4 HF 2 is 10 nm/min or lower, (b) a formation rate of a silicon oxide while being exposed to a saturated water vapor atmosphere at 208 kPa and 121°C is 2 nm/hour or lower in terms of a silicon oxide film, and (c) an internal stress in the film is in the range of -1000 to 1000 MPa.
A computer-implemented method of power recovery in a modular food holding bin having a plurality of individually addressable and individually controllable food holding units , the method comprising: upon power recovery from a power fault condition, determining, in a power recovery module of a master base controller , a time associated with the power recovery, the master base controller being a processing device coupled to control the plurality of food holding units ; determining, in the power recovery module , a fault time indicating an amount of lost time between the power fault condition and the power recovery; in response, to the fault time determination, determining a timer status for each of the food holding units ; and for the food holding units determined to have an expired active timer status after the power recovery, the master controller sending a food expiration instruction to the food holding units; and for the food holding units determined to have an active time status after the power recovery, the master controller sending an updated operating instruction to the food holding units, the updated operating instruction including timing data for completing a recipe on the food holding units. upon power recovery from a power fault condition, determining, in a power recovery module of a master base controller , a time associated with the power recovery, the master base controller being a processing device coupled to control the plurality of food holding units ; determining, in the power recovery module , a fault time indicating an amount of lost time between the power fault condition and the power recovery; in response, to the fault time determination, determining a timer status for each of the food holding units ; and for the food holding units determined to have an expired active timer status after the power recovery, the master controller sending a food expiration instruction to the food holding units; and for the food holding units determined to have an active time status after the power recovery, the master controller sending an updated operating instruction to the food holding units, the updated operating instruction including timing data for completing a recipe on the food holding units.
A section of a gas turbine engine , comprising: a vane assembly including a featherseal slot ; and a first featherseal at least partially received in the featherseal slot , the first featherseal including a radial portion having at least one side with a taper, wherein the radial portion has opposed first and second circumferential sides ; each of the first and second circumferential sides having a taper , the section being characterised in that the taper of one of the first and second circumferential sides is emphasized to correspond to a circumferential tip of the featherseal , the emphasized taper being provided over a larger radial distance than the taper of the other one of the first and second circumferential sides . a vane assembly including a featherseal slot ; and a first featherseal at least partially received in the featherseal slot , the first featherseal including a radial portion having at least one side with a taper, wherein the radial portion has opposed first and second circumferential sides ; each of the first and second circumferential sides having a taper , the section being characterised in that the taper of one of the first and second circumferential sides is emphasized to correspond to a circumferential tip of the featherseal , the emphasized taper being provided over a larger radial distance than the taper of the other one of the first and second circumferential sides .
A foldable tote box , comprising a box body , the box body including: a square or rectangular bottom surface part ; front and rear side wall parts and right and left side wall parts corresponding to respective sides of the bottom surface part , wherein each of the right and left side wall parts comprises two divided portions configured to be foldable along a division line between said divided portions , wherein the side wall parts comprise a sheet material which includes a transparent portion , and the transparent portion enables a content of the foldable tote box to be visually checked; a lid extending from an upper edge of the rear side wall part ; and a reinforcement plate configured to reinforce the bottom surface part , wherein the reinforcement plate is pivotably mounted on a lower edge of the front side wall part or the rear side wall part, wherein the right and left side wall parts are inwardly foldable when a center portion of the bottom surface part is pulled up, such that said two divided portions overlap with each other when folded, characterised in that each of the front and rear side wall parts and each of the divided portions is formed of a frame member and of the sheet material supported by the frame member , wherein each side of the frame member has a thickness of about 5 mm, wherein in said right and left side wall parts , the two frame members are enclosed in transparent sheets under a state of being laterally arrayed at a predetermined interval, said transparent sheets being sewed between said two frame members , each frame member being enclosed in the sheet material and being configured to define an outline of the front and rear side wall parts and the divided portion , and is configured to maintain a shape of the front and rear side wall parts and the divided portion . a square or rectangular bottom surface part ; front and rear side wall parts and right and left side wall parts corresponding to respective sides of the bottom surface part , wherein each of the right and left side wall parts comprises two divided portions configured to be foldable along a division line between said divided portions , wherein the side wall parts comprise a sheet material which includes a transparent portion , and the transparent portion enables a content of the foldable tote box to be visually checked; a lid extending from an upper edge of the rear side wall part ; and a reinforcement plate configured to reinforce the bottom surface part ,
An image forming apparatus comprising: an image forming portion for forming an image on a recording material; and a fixing portion including a tubular film and a heater including a substrate, a heating element provided on the substrate, and a temperature sensing element (T1, T2, T3) provided on a surface of the substrate opposite to a surface on which the heating element is provided, wherein the fixing portion fixes the image formed on the recording material to the recording material with heat from the heater which is controlled according to a sensed temperature by the temperature sensing element, wherein the image forming apparatus includes a temperature sensing circuit to which the temperature sensing element is electrically connected, a surface of the heater on a side where the temperature sensing element is provided is in contact with an inner surface of the film, the heating element is provided in a primary side circuit which is electrically connected to a commercial power supply, characterised in that the temperature sensing circuit is electrically insulated from both of the primary side circuit and a secondary side circuit which is electrically insulated from the primary side circuit. an image forming portion for forming an image on a recording material; and a fixing portion including a tubular film and a heater including a substrate, a heating element provided on the substrate, and a temperature sensing element (T1, T2, T3) provided on a surface of the substrate opposite to a surface on which the heating element is provided, wherein the fixing portion fixes the image formed on the recording material to the recording material with heat from the heater which is controlled according to a sensed temperature by the temperature sensing element, wherein a tubular film and a heater including a substrate, a heating element provided on the substrate, and a temperature sensing element (T1, T2, T3) provided on a surface of the substrate opposite to a surface on which the heating element is provided, wherein the fixing portion fixes the image formed on the recording material to the recording material with heat from the heater which is controlled according to a sensed temperature by the temperature sensing element, wherein the image forming apparatus includes a temperature sensing circuit to which the temperature sensing element is electrically connected, a surface of the heater on a side where the temperature sensing element is provided is in contact with an inner surface of the film, the heating element is provided in a primary side circuit which is electrically connected to a commercial power supply, characterised in that the temperature sensing circuit is electrically insulated from both of the primary side circuit and a secondary side circuit which is electrically insulated from the primary side circuit.